shizhes/fortran_val · Datasets at Hugging Face

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SUBROUTINE SLAEIN( RIGHTV, NOINIT, N, H, LDH, WR, WI, VR, VI, B, $ LDB, WORK, EPS3, SMLNUM, BIGNUM, INFO ) * * -- LAPACK auxiliary routine (instrumented to count operations) -- * Univ. of Tennessee, Univ. of California Berkeley, NAG Ltd., * Courant Institute, Argonne National Lab, and Rice University * September 30, 1994 * * .. Scalar Arguments .. LOGICAL NOINIT, RIGHTV INTEGER INFO, LDB, LDH, N REAL BIGNUM, EPS3, SMLNUM, WI, WR * .. * .. Array Arguments .. REAL B( LDB, * ), H( LDH, * ), VI( * ), VR( * ), $ WORK( * ) * .. * Common block to return operation count. * .. Common blocks .. COMMON / LATIME / OPS, ITCNT * .. * .. Scalars in Common .. REAL ITCNT, OPS * .. * * Purpose * ======= * * SLAEIN uses inverse iteration to find a right or left eigenvector * corresponding to the eigenvalue (WR,WI) of a real upper Hessenberg * matrix H. * * Arguments * ========= * * RIGHTV (input) LOGICAL * = .TRUE. : compute right eigenvector; * = .FALSE.: compute left eigenvector. * * NOINIT (input) LOGICAL * = .TRUE. : no initial vector supplied in (VR,VI). * = .FALSE.: initial vector supplied in (VR,VI). * * N (input) INTEGER * The order of the matrix H. N >= 0. * * H (input) REAL array, dimension (LDH,N) * The upper Hessenberg matrix H. * * LDH (input) INTEGER * The leading dimension of the array H. LDH >= max(1,N). * * WR (input) REAL * WI (input) REAL * The real and imaginary parts of the eigenvalue of H whose * corresponding right or left eigenvector is to be computed. * * VR (input/output) REAL array, dimension (N) * VI (input/output) REAL array, dimension (N) * On entry, if NOINIT = .FALSE. and WI = 0.0, VR must contain * a real starting vector for inverse iteration using the real * eigenvalue WR; if NOINIT = .FALSE. and WI.ne.0.0, VR and VI * must contain the real and imaginary parts of a complex * starting vector for inverse iteration using the complex * eigenvalue (WR,WI); otherwise VR and VI need not be set. * On exit, if WI = 0.0 (real eigenvalue), VR contains the * computed real eigenvector; if WI.ne.0.0 (complex eigenvalue), * VR and VI contain the real and imaginary parts of the * computed complex eigenvector. The eigenvector is normalized * so that the component of largest magnitude has magnitude 1; * here the magnitude of a complex number (x,y) is taken to be * \|x\| + \|y\|. * VI is not referenced if WI = 0.0. * * B (workspace) REAL array, dimension (LDB,N) * * LDB (input) INTEGER * The leading dimension of the array B. LDB >= N+1. * * WORK (workspace) REAL array, dimension (N) * * EPS3 (input) REAL * A small machine-dependent value which is used to perturb * close eigenvalues, and to replace zero pivots. * * SMLNUM (input) REAL * A machine-dependent value close to the underflow threshold. * * BIGNUM (input) REAL * A machine-dependent value close to the overflow threshold. * * INFO (output) INTEGER * = 0: successful exit * = 1: inverse iteration did not converge; VR is set to the * last iterate, and so is VI if WI.ne.0.0. * * ===================================================================== * * .. Parameters .. REAL ZERO, ONE, TENTH PARAMETER ( ZERO = 0.0E+0, ONE = 1.0E+0, TENTH = 1.0E-1 ) * .. * .. Local Scalars .. CHARACTER NORMIN, TRANS INTEGER I, I1, I2, I3, IERR, ITS, J REAL ABSBII, ABSBJJ, EI, EJ, GROWTO, NORM, NRMSML, $ OPST, REC, ROOTN, SCALE, TEMP, VCRIT, VMAX, $ VNORM, W, W1, X, XI, XR, Y * .. * .. External Functions .. INTEGER ISAMAX REAL SASUM, SLAPY2, SNRM2 EXTERNAL ISAMAX, SASUM, SLAPY2, SNRM2 * .. * .. External Subroutines .. EXTERNAL SLADIV, SLATRS, SSCAL * .. * .. Intrinsic Functions .. INTRINSIC ABS, MAX, REAL, SQRT * .. * .. Executable Statements .. * INFO = 0 *** * Initialize OPST = 0 *** * * GROWTO is the threshold used in the acceptance test for an * eigenvector. * ROOTN = SQRT( REAL( N ) ) GROWTO = TENTH / ROOTN NRMSML = MAX( ONE, EPS3ROOTN )SMLNUM *** * Increment op count for computing ROOTN, GROWTO and NRMSML OPST = OPST + 4 *** * * Form B = H - (WR,WI)I (except that the subdiagonal elements and the imaginary parts of the diagonal elements are not stored). * DO 20 J = 1, N DO 10 I = 1, J - 1 B( I, J ) = H( I, J ) 10 CONTINUE B( J, J ) = H( J, J ) - WR 20 CONTINUE * OPST = OPST + N * * IF( WI.EQ.ZERO ) THEN * * Real eigenvalue. * IF( NOINIT ) THEN * * Set initial vector. * DO 30 I = 1, N VR( I ) = EPS3 30 CONTINUE ELSE * * Scale supplied initial vector. * VNORM = SNRM2( N, VR, 1 ) CALL SSCAL( N, ( EPS3ROOTN ) / MAX( VNORM, NRMSML ), VR, $ 1 ) ** OPST = OPST + ( 3N+2 ) ** END IF * IF( RIGHTV ) THEN * * LU decomposition with partial pivoting of B, replacing zero * pivots by EPS3. * DO 60 I = 1, N - 1 EI = H( I+1, I ) IF( ABS( B( I, I ) ).LT.ABS( EI ) ) THEN * * Interchange rows and eliminate. * X = B( I, I ) / EI B( I, I ) = EI DO 40 J = I + 1, N TEMP = B( I+1, J ) B( I+1, J ) = B( I, J ) - XTEMP B( I, J ) = TEMP 40 CONTINUE ELSE * Eliminate without interchange. * IF( B( I, I ).EQ.ZERO ) $ B( I, I ) = EPS3 X = EI / B( I, I ) IF( X.NE.ZERO ) THEN DO 50 J = I + 1, N B( I+1, J ) = B( I+1, J ) - XB( I, J ) 50 CONTINUE END IF END IF 60 CONTINUE IF( B( N, N ).EQ.ZERO ) $ B( N, N ) = EPS3 ** * Increment op count for LU decomposition OPS = OPS + ( N-1 )( N+1 ) ** * TRANS = 'N' * ELSE * * UL decomposition with partial pivoting of B, replacing zero * pivots by EPS3. * DO 90 J = N, 2, -1 EJ = H( J, J-1 ) IF( ABS( B( J, J ) ).LT.ABS( EJ ) ) THEN * * Interchange columns and eliminate. * X = B( J, J ) / EJ B( J, J ) = EJ DO 70 I = 1, J - 1 TEMP = B( I, J-1 ) B( I, J-1 ) = B( I, J ) - XTEMP B( I, J ) = TEMP 70 CONTINUE ELSE * Eliminate without interchange. * IF( B( J, J ).EQ.ZERO ) $ B( J, J ) = EPS3 X = EJ / B( J, J ) IF( X.NE.ZERO ) THEN DO 80 I = 1, J - 1 B( I, J-1 ) = B( I, J-1 ) - XB( I, J ) 80 CONTINUE END IF END IF 90 CONTINUE IF( B( 1, 1 ).EQ.ZERO ) $ B( 1, 1 ) = EPS3 ** * Increment op count for UL decomposition OPS = OPS + ( N-1 )( N+1 ) ** * TRANS = 'T' * END IF * NORMIN = 'N' DO 110 ITS = 1, N * * Solve Ux = scalev for a right eigenvector * or U'x = scalev for a left eigenvector, * overwriting x on v. * CALL SLATRS( 'Upper', TRANS, 'Nonunit', NORMIN, N, B, LDB, $ VR, SCALE, WORK, IERR ) *** * Increment opcount for triangular solver, assuming that * ops SLATRS = ops STRSV, with no scaling in SLATRS. OPS = OPS + NN ** NORMIN = 'Y' * * Test for sufficient growth in the norm of v. * VNORM = SASUM( N, VR, 1 ) * OPST = OPST + N * IF( VNORM.GE.GROWTOSCALE ) $ GO TO 120 * Choose new orthogonal starting vector and try again. * TEMP = EPS3 / ( ROOTN+ONE ) VR( 1 ) = EPS3 DO 100 I = 2, N VR( I ) = TEMP 100 CONTINUE VR( N-ITS+1 ) = VR( N-ITS+1 ) - EPS3ROOTN OPST = OPST + 4 * 110 CONTINUE * * Failure to find eigenvector in N iterations. * INFO = 1 * 120 CONTINUE * * Normalize eigenvector. * I = ISAMAX( N, VR, 1 ) CALL SSCAL( N, ONE / ABS( VR( I ) ), VR, 1 ) *** OPST = OPST + ( 2N+1 ) ** ELSE * * Complex eigenvalue. * IF( NOINIT ) THEN * * Set initial vector. * DO 130 I = 1, N VR( I ) = EPS3 VI( I ) = ZERO 130 CONTINUE ELSE * * Scale supplied initial vector. * NORM = SLAPY2( SNRM2( N, VR, 1 ), SNRM2( N, VI, 1 ) ) REC = ( EPS3ROOTN ) / MAX( NORM, NRMSML ) CALL SSCAL( N, REC, VR, 1 ) CALL SSCAL( N, REC, VI, 1 ) ** OPST = OPST + ( 6N+5 ) ** END IF * IF( RIGHTV ) THEN * * LU decomposition with partial pivoting of B, replacing zero * pivots by EPS3. * * The imaginary part of the (i,j)-th element of U is stored in * B(j+1,i). * B( 2, 1 ) = -WI DO 140 I = 2, N B( I+1, 1 ) = ZERO 140 CONTINUE * DO 170 I = 1, N - 1 ABSBII = SLAPY2( B( I, I ), B( I+1, I ) ) EI = H( I+1, I ) IF( ABSBII.LT.ABS( EI ) ) THEN * * Interchange rows and eliminate. * XR = B( I, I ) / EI XI = B( I+1, I ) / EI B( I, I ) = EI B( I+1, I ) = ZERO DO 150 J = I + 1, N TEMP = B( I+1, J ) B( I+1, J ) = B( I, J ) - XRTEMP B( J+1, I+1 ) = B( J+1, I ) - XITEMP B( I, J ) = TEMP B( J+1, I ) = ZERO 150 CONTINUE B( I+2, I ) = -WI B( I+1, I+1 ) = B( I+1, I+1 ) - XIWI B( I+2, I+1 ) = B( I+2, I+1 ) + XRWI *** OPST = OPST + ( 4( N-I )+6 ) ** ELSE * * Eliminate without interchanging rows. * IF( ABSBII.EQ.ZERO ) THEN B( I, I ) = EPS3 B( I+1, I ) = ZERO ABSBII = EPS3 END IF EI = ( EI / ABSBII ) / ABSBII XR = B( I, I )EI XI = -B( I+1, I )EI DO 160 J = I + 1, N B( I+1, J ) = B( I+1, J ) - XRB( I, J ) + $ XIB( J+1, I ) B( J+1, I+1 ) = -XRB( J+1, I ) - XIB( I, J ) 160 CONTINUE B( I+2, I+1 ) = B( I+2, I+1 ) - WI *** OPST = OPST + ( 7( N-I )+4 ) ** END IF * * Compute 1-norm of offdiagonal elements of i-th row. * WORK( I ) = SASUM( N-I, B( I, I+1 ), LDB ) + $ SASUM( N-I, B( I+2, I ), 1 ) *** OPST = OPST + ( 2( N-I )+4 ) ** 170 CONTINUE IF( B( N, N ).EQ.ZERO .AND. B( N+1, N ).EQ.ZERO ) $ B( N, N ) = EPS3 WORK( N ) = ZERO * I1 = N I2 = 1 I3 = -1 ELSE * * UL decomposition with partial pivoting of conjg(B), * replacing zero pivots by EPS3. * * The imaginary part of the (i,j)-th element of U is stored in * B(j+1,i). * B( N+1, N ) = WI DO 180 J = 1, N - 1 B( N+1, J ) = ZERO 180 CONTINUE * DO 210 J = N, 2, -1 EJ = H( J, J-1 ) ABSBJJ = SLAPY2( B( J, J ), B( J+1, J ) ) IF( ABSBJJ.LT.ABS( EJ ) ) THEN * * Interchange columns and eliminate * XR = B( J, J ) / EJ XI = B( J+1, J ) / EJ B( J, J ) = EJ B( J+1, J ) = ZERO DO 190 I = 1, J - 1 TEMP = B( I, J-1 ) B( I, J-1 ) = B( I, J ) - XRTEMP B( J, I ) = B( J+1, I ) - XITEMP B( I, J ) = TEMP B( J+1, I ) = ZERO 190 CONTINUE B( J+1, J-1 ) = WI B( J-1, J-1 ) = B( J-1, J-1 ) + XIWI B( J, J-1 ) = B( J, J-1 ) - XRWI *** OPST = OPST + ( 4( J-1 )+6 ) ** ELSE * * Eliminate without interchange. * IF( ABSBJJ.EQ.ZERO ) THEN B( J, J ) = EPS3 B( J+1, J ) = ZERO ABSBJJ = EPS3 END IF EJ = ( EJ / ABSBJJ ) / ABSBJJ XR = B( J, J )EJ XI = -B( J+1, J )EJ DO 200 I = 1, J - 1 B( I, J-1 ) = B( I, J-1 ) - XRB( I, J ) + $ XIB( J+1, I ) B( J, I ) = -XRB( J+1, I ) - XIB( I, J ) 200 CONTINUE B( J, J-1 ) = B( J, J-1 ) + WI *** OPST = OPST + ( 7( J-1 )+4 ) ** END IF * * Compute 1-norm of offdiagonal elements of j-th column. * WORK( J ) = SASUM( J-1, B( 1, J ), 1 ) + $ SASUM( J-1, B( J+1, 1 ), LDB ) *** OPST = OPST + ( 2( J-1 )+4 ) ** 210 CONTINUE IF( B( 1, 1 ).EQ.ZERO .AND. B( 2, 1 ).EQ.ZERO ) $ B( 1, 1 ) = EPS3 WORK( 1 ) = ZERO * I1 = 1 I2 = N I3 = 1 END IF * DO 270 ITS = 1, N SCALE = ONE VMAX = ONE VCRIT = BIGNUM * * Solve U(xr,xi) = scale(vr,vi) for a right eigenvector, * or U'(xr,xi) = scale(vr,vi) for a left eigenvector, * overwriting (xr,xi) on (vr,vi). * DO 250 I = I1, I2, I3 * IF( WORK( I ).GT.VCRIT ) THEN REC = ONE / VMAX CALL SSCAL( N, REC, VR, 1 ) CALL SSCAL( N, REC, VI, 1 ) SCALE = SCALEREC VMAX = ONE VCRIT = BIGNUM END IF XR = VR( I ) XI = VI( I ) IF( RIGHTV ) THEN DO 220 J = I + 1, N XR = XR - B( I, J )VR( J ) + B( J+1, I )VI( J ) XI = XI - B( I, J )VI( J ) - B( J+1, I )VR( J ) 220 CONTINUE ELSE DO 230 J = 1, I - 1 XR = XR - B( J, I )VR( J ) + B( I+1, J )VI( J ) XI = XI - B( J, I )VI( J ) - B( I+1, J )VR( J ) 230 CONTINUE END IF * W = ABS( B( I, I ) ) + ABS( B( I+1, I ) ) IF( W.GT.SMLNUM ) THEN IF( W.LT.ONE ) THEN W1 = ABS( XR ) + ABS( XI ) IF( W1.GT.WBIGNUM ) THEN REC = ONE / W1 CALL SSCAL( N, REC, VR, 1 ) CALL SSCAL( N, REC, VI, 1 ) XR = VR( I ) XI = VI( I ) SCALE = SCALEREC VMAX = VMAXREC END IF END IF * Divide by diagonal element of B. * CALL SLADIV( XR, XI, B( I, I ), B( I+1, I ), VR( I ), $ VI( I ) ) VMAX = MAX( ABS( VR( I ) )+ABS( VI( I ) ), VMAX ) VCRIT = BIGNUM / VMAX * OPST = OPST + 9 * ELSE DO 240 J = 1, N VR( J ) = ZERO VI( J ) = ZERO 240 CONTINUE VR( I ) = ONE VI( I ) = ONE SCALE = ZERO VMAX = ONE VCRIT = BIGNUM END IF 250 CONTINUE *** * Increment op count for loop 260, assuming no scaling OPS = OPS + 4N( N-1 ) *** * * Test for sufficient growth in the norm of (VR,VI). * VNORM = SASUM( N, VR, 1 ) + SASUM( N, VI, 1 ) *** OPST = OPST + 2N ** IF( VNORM.GE.GROWTOSCALE ) $ GO TO 280 * Choose a new orthogonal starting vector and try again. * Y = EPS3 / ( ROOTN+ONE ) VR( 1 ) = EPS3 VI( 1 ) = ZERO * DO 260 I = 2, N VR( I ) = Y VI( I ) = ZERO 260 CONTINUE VR( N-ITS+1 ) = VR( N-ITS+1 ) - EPS3ROOTN OPST = OPST + 4 * 270 CONTINUE * * Failure to find eigenvector in N iterations * INFO = 1 * 280 CONTINUE * * Normalize eigenvector. * VNORM = ZERO DO 290 I = 1, N VNORM = MAX( VNORM, ABS( VR( I ) )+ABS( VI( I ) ) ) 290 CONTINUE CALL SSCAL( N, ONE / VNORM, VR, 1 ) CALL SSCAL( N, ONE / VNORM, VI, 1 ) *** OPST = OPST + ( 4N+1 ) ** * END IF * *** * Compute final op count OPS = OPS + OPST *** RETURN * * End of SLAEIN * END	old/lapack-test/lapack-timing/EIG/EIGSRC/slaein.f
use sim implicit none type(SeismicAnalysis_) :: seismic type(FEMDomain_),target :: cube,original type(IO_) :: f,response,history_A,history_V,history_U,input_wave type(Math_) :: math real(real64),allocatable :: disp_z(:,:) real(real64) :: wave(200,2),T,Duration,dt integer(int32) :: i,j,cases,stack_id,num_of_cases num_of_cases = 4 ! create Domain call cube%create(meshtype="Cube3D",x_num=4,y_num=4,z_num=20) call cube%resize(x=1.0d0,y=1.0d0,z=5.0d0) call cube%move(z=-5.0d0) ! create Wave T = 0.300d0 Duration = T * 10.0d0 ! sec. dt = Duration/dble(size(wave,1))!/10.0d0 wave(:,:) = 0.0d0 do i=1,size(wave,1) wave(i,1) = dtdble(i) wave(i,2) = sin(2.0d0math%pi/Twave(i,1) ) enddo call input_wave%open("input_wave.txt" ) call input_wave%write(wave ) call input_wave%close() original = cube ! set domain seismic%femdomain => cube ! set wave seismic%wave = wave seismic%dt = dt ! run simulation call seismic%init() !call seismic%fixDisplacement(z_max = -4.99d0,direction="x") call seismic%fixDisplacement(z_max = -4.99d0,direction="y") call seismic%fixDisplacement(z_max = -4.99d0,direction="z") call seismic%fixDisplacement(y_max = 0.0d0,direction="y") call seismic%fixDisplacement(y_min = 1.0d0,direction="y") call seismic%fixDisplacement(direction="z") call seismic%femdomain%vtk("mesh_init" ) call seismic%loadWave(z_max=-4.50d0,direction="x",wavetype=WAVE_ACCEL) seismic%Density(:) = 17000.0d0 !(N/m/m/m) seismic%PoissonRatio(:) = 0.330d0 seismic%YoungModulus(:) = 25372853.0 !(N/m/m) Vs=121 m/s !seismic%alpha = 0.0d0 seismic%a = 0.0d0 seismic%v = 0.0d0 seismic%u = 0.0d0 do i=1,199 !seismic%beta = 0.0d0 call history_A%open("history_A"//str(i)//".txt","w") call history_V%open("history_V"//str(i)//".txt","w") call history_U%open("history_U"//str(i)//".txt","w") call seismic%run(timestep=[i,i+1],AccelLimit=10.0d08) do j=1,seismic%femdomain%nn() if(seismic%femdomain%position_x(j)/=0.0d0) cycle if(seismic%femdomain%position_y(j)/=0.0d0) cycle write(history_A%fh,) real(dble(i)dt),& seismic%femdomain%position_z(j), real(seismic%A( (j-1)3 + 1 )) enddo do j=1,seismic%femdomain%nn() if(seismic%femdomain%position_x(j)/=0.0d0) cycle if(seismic%femdomain%position_y(j)/=0.0d0) cycle write(history_V%fh,) real(dble(i)dt),& seismic%femdomain%position_z(j), real(seismic%V( (j-1)3 + 1 )) enddo do j=1,seismic%femdomain%nn() if(seismic%femdomain%position_x(j)/=0.0d0) cycle if(seismic%femdomain%position_y(j)/=0.0d0) cycle write(history_U%fh,) real(dble(i)dt),& seismic%femdomain%position_z(j), real(seismic%U( (j-1)3 + 1 )) enddo call history_A%close() call history_V%close() call history_U%close() enddo !print , maxval(seismic%U) seismic%femdomain%mesh%nodcoord = seismic%femdomain%mesh%nodcoord + (10.0d00)& reshape(seismic%a, seismic%femdomain%nn(),seismic%femdomain%nd() ) call seismic%femdomain%vtk("result") !call response%open("T_A"//str(cases)//".txt") !call response%write(T,seismic%maxA(1)) !call response%close() end	Tutorial/sim/SeismicAnalysis.f90
! ! common routines for testing ! module test_common implicit none integer, parameter, public :: dp = kind(1.d0) ! Common in the test routines. character(len=), parameter :: SAMPLE_DIR = '../samples' character(len=), parameter :: DEF_FNAME_OUT = SAMPLE_DIR//'/test_out.txt' contains ! Print the stats info at the end of each subroutine-level testing subroutine print_teststats(subname, nsuccess, ifailed) character(), intent(in) :: subname integer, intent(in) :: nsuccess ! Number of succesful trials, i-th failure integer, intent(in), optional :: ifailed ! i-th failure if (present(ifailed)) then write(, '(" Tests(", a, "): Only succeeded in ", i3, " tests before failed at ", i3, "-th.")') & trim(subname), nsuccess, ifailed else write(, '(" Tests(", a, "): Succeeded in all ", i3, " tests.")') & trim(subname), nsuccess end if end subroutine print_teststats end module test_common module test_alpin_misc_utils use alpin_unittest use alpin_err_exit use test_common use alpin_misc_utils implicit none contains ! run tests of routines in alpin_misc_utils.f90 ! ! Returns 1 if error is raised (0 otherwise) integer function run_test_alpin_misc_utils() result(ret_status) character(), parameter :: Subname = 'run_test_alpin_misc_utils' integer, parameter :: TOT_NTESTS = 39 logical, dimension(TOT_NTESTS) :: ress integer :: iloc ret_status = 0 ! normal ends (n.b., returned value) ress = [ & assert_in_delta(180.0d0, rad2deg(PI), 1.0e5, Subname, ' rad2deg(PI)') & , assert_in_delta(PI, deg2rad(180.0d0), 1.0e5, Subname, ' deg2rad(180.0)') & , assert_equal ('00000001', dump_int_binary(1_1), Subname, 'dump_int_binary') & , assert_equal ('01111111', dump_int_binary(127_1), Subname, 'dump_int_binary') & , assert_equal ('11111111', dump_int_binary(-1_1), Subname, 'dump_int_binary') & , assert_equal (3, int4_to_unsigned1(3), Subname, 'for (3(int4=>1))') & , assert_equal(-1, int4_to_unsigned1(255), Subname, 'for (255(int4=>1))') & , assert_equal(255, unsigned1_to_int4(-1_1), Subname, 'for (255(int1=>4))') & , assert_equal ('00000000_00000000_00000000_01111111', dump_int_binary(127_4), Subname, 'dump_int_binary(127)') & , assert_equal ('00000000_00000000_00000001_01111111', dump_int_binary(383_4), Subname, 'dump_int_binary(383)') & , assert_equal ('11111111_11111111_11111111_11111111', dump_int_binary(-1_4), Subname, 'dump_int_binary(-1)') & , assert_equal('c.d', trim(basename('/a/b/c.d')), Subname, 'basename(/a/b/c.d)') & , assert_equal('c.d', trim(basename('c.d')), Subname, 'basename(c.d)') & , assert_equal('abc', trim(basename('/x/abc/')), Subname, 'basename(/x/abc/)') & , assert_equal('abc', trim(basename('/x/abc///')), Subname, 'basename(/x/abc///)') & , assert_equal('/', trim(basename('/')), Subname, 'basename(/)') & , assert_equal('/', trim(basename('//')), Subname, 'basename(//)') & , assert_equal('0', trim(ladjusted_int(0_1)), Subname, 'ladjusted_int(0_1)') & , assert_equal('-123', trim(ladjusted_int(-123_1)), Subname, 'ladjusted_int(-123_1)') & , assert_equal('-123', trim(ladjusted_int(-123_2)), Subname, 'ladjusted_int(-123_2)') & , assert_equal('-123', trim(ladjusted_int(-123_4)), Subname, 'ladjusted_int(-123_4)') & , assert_equal('-123', trim(ladjusted_int(-123_8)), Subname, 'ladjusted_int(-123_8)') & , assert_equal('-12345', trim(ladjusted_int(-12345_2)),Subname, 'ladjusted_int(-12345_2)') & , assert_equal('-123456', trim(ladjusted_int(-123456)), Subname, 'ladjusted_int(-123456)') & , assert_equal('-123456', trim(ladjusted_int(-123456)), Subname, 'ladjusted_int(-123456)') & , assert_equal('''ab'', ''cdef'', ''ghi''', join_ary(['ab ','cdef','ghi ']), Subname, 'join_ary_chars()') & , assert_equal('$ab$, $cdef$, $ghi$', join_ary(['ab ','cdef','ghi '],quote='$'), Subname, 'join_ary_chars()') & , assert_equal('-123, 4, -56', join_ary([-123, 4, -56]), Subname, 'join_ary_int4()') & , assert_equal('-123; 4; -56', join_ary([-123_2, 4_2, -56_2], '; '), Subname, 'join_ary_int2()') & , assert_equal(1, findloc1(['X','Y','X'],'X'), Subname, 'findloc1_char') & , assert_equal(3, findloc1(['X','Y','X'],'X',MASK=[.false.,.true.,.true.]), Subname, 'findloc1_char-mask') & , assert_equal(3, findloc1(['X','Y','X'],'X',BACK=.true.), Subname, 'findloc1_char-back') & , assert_equal(1, findloc1(['X','Y','X'],'X',MASK=[.true.,.true.,.false.],BACK=.true.), Subname, 'findloc1_char-ma-ba') & , assert_equal(2, findloc1([9,8,7,6],8), Subname, 'findloc1_int4') & , assert_equal(2, findloc1(int([9,8,7,6],kind=2),8), Subname, 'findloc1_int2_4') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=4),32.0), Subname, 'findloc1_real4') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=4),32.d0), Subname, 'findloc1_real4-2') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=8),32.0), Subname, 'findloc1_real8-1') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=8),32.d0), Subname, 'findloc1_real8-2') & ] iloc = findloc1(ress, .false.) ! Similar to the standard way, but scalar: ilocs(:)=findloc(ress, .false.) if (iloc == 0) then ! All passed call print_teststats(Subname, nsuccess=TOT_NTESTS) return end if ! Failed call print_teststats(Subname, nsuccess=iloc-1, ifailed=iloc) ret_status = 1 end function run_test_alpin_misc_utils end module test_alpin_misc_utils module test_alpin_hash use alpin_unittest use alpin_err_exit use test_common use alpin_misc_utils use alpin_hash implicit none contains ! run tests of routines in alpin_misc_utils.f90 ! ! Returns 1 if error is raised (0 otherwise) integer function run_test_alpin_hash() result(ret_status) character(), parameter :: Subname = 'run_test_alpin_hash' integer, parameter :: TOT_NTESTS = 11 logical, dimension(TOT_NTESTS) :: ress integer :: iloc type(t_alpin_hash_logical), dimension(2) :: arlogi type(t_alpin_hash_char), dimension(2) :: archar type(t_alpin_hash_int4), dimension(2) :: arint4 type(t_alpin_hash_real8), dimension(2) :: arreal8 logical, dimension(2) :: is_undef character(len=LEN_T_ALPIN_HASH), dimension(2) :: valchs ret_status = 0 ! normal ends (n.b., returned value) arlogi = [t_alpin_hash_logical(key='k1', val=.false.), t_alpin_hash_logical(key='k2', val=.true.)] archar = [t_alpin_hash_char( key='k1', val='v1'), t_alpin_hash_char( key='k2', val='v2')] arint4 = [t_alpin_hash_int4( key='k1', val=11), t_alpin_hash_int4( key='k2', val=22)] arreal8= [t_alpin_hash_real8(key='k1', val=16.0), t_alpin_hash_real8(key='k2', val=32.0)] call hashval_status('k2', archar, valchs(1), is_undef(1)) call hashval_status('naiyo', archar, valchs(2), is_undef(2)) ress = [ & assert_not(is_undef(1), Subname, ' hashval_status()-1') & , assert( is_undef(2), Subname, ' hashval_status()-2') & , assert_equal('v2', valchs(1), Subname, ' hashval_status("k2")') & , assert_equal('v2', trim(fetch_hashval('k2', archar)), Subname, ' fetch_hashval("k2")') & ! NOTE: without trim(), this causes either "malloc: ** set a breakpoint in malloc_error_break to debug" or "SIGSEGV: Segmentation fault - invalid memory reference." ! It seems that if a character as a returned value from a function is passed directly (i.e., without trim()) to a different function, it may cause a memory-related error. , assert_equal('@', trim(fetch_hashval('naiyo', archar, undef='@')), Subname, ' fetch_hashval("naiyo","@")') & , assert_equal('', trim(fetch_hashval('naiyo', archar)), Subname, ' fetch_hashval("naiyo")') & , assert_equal(22, fetch_hashval('k2', arint4), Subname, ' fetch_hashval_i4("k2")') & , assert_equal(79, fetch_hashval('naiyo', arint4, undef=79), Subname, ' fetch_hashval_i4("k2",79)') & , assert(fetch_hashval('k2', arlogi), Subname, ' fetch_hashval_logi("k2")') & , assert_in_delta(32.d0, fetch_hashval('k2', arreal8), 1e-8, Subname, ' fetch_hashval_real8("k2")') & , assert_in_delta(79.d0, fetch_hashval('naiyo', arreal8, undef=79.d0), 1e-8, Subname, ' fetch_hashval_real8("k2",79)') & ] iloc = findloc1(ress, .false.) ! Similar to the standard way, but scalar: ilocs(:)=findloc(ress, .false.) if (iloc == 0) then ! All passed call print_teststats(Subname, nsuccess=TOT_NTESTS) return end if ! Failed call print_teststats(Subname, nsuccess=iloc-1, ifailed=iloc) ret_status = 1 end function run_test_alpin_hash end module test_alpin_hash ! ------------------------------------------------------------------- program testalpin use test_alpin_misc_utils use test_alpin_hash implicit none integer :: status = 0 status = status + run_test_alpin_misc_utils() status = status + run_test_alpin_hash() if (status .ne. 0) then call EXIT(status) ! for gfortran, Lahey Fujitsu Fortran 95, etc end if end program testalpin	test/testalpin.f90
subroutine zgefa(a,lda,n,ipvt,info) integer lda,n,ipvt(1),info complex16 a(lda,1) c c zgefa factors a complex16 matrix by gaussian elimination. c c zgefa is usually called by zgeco, but it can be called c directly with a saving in time if rcond is not needed. c (time for zgeco) = (1 + 9/n)(time for zgefa) . c c on entry c c a complex16(lda, n) c the matrix to be factored. c c lda integer c the leading dimension of the array a . c c n integer c the order of the matrix a . c c on return c c a an upper triangular matrix and the multipliers c which were used to obtain it. c the factorization can be written a = lu where c l is a product of permutation and unit lower c triangular matrices and u is upper triangular. c c ipvt integer(n) c an integer vector of pivot indices. c c info integer c = 0 normal value. c = k if u(k,k) .eq. 0.0 . this is not an error c condition for this subroutine, but it does c indicate that zgesl or zgedi will divide by zero c if called. use rcond in zgeco for a reliable c indication of singularity. c c linpack. this version dated 08/14/78 . c cleve moler, university of new mexico, argonne national lab. c c subroutines and functions c c blas zaxpy,zscal,izamax c fortran dabs c c internal variables c complex16 t integer izamax,j,k,kp1,l,nm1 c complex16 zdum double precision cabs1 double precision dreal,dimag complex16 zdumr,zdumi dreal(zdumr) = zdumr dimag(zdumi) = (0.0d0,-1.0d0)*zdumi cabs1(zdum) = dabs(dreal(zdum)) + dabs(dimag(zdum)) c c gaussian elimination with partial pivoting c info = 0 nm1 = n - 1 if (nm1 .lt. 1) go to 70 do 60 k = 1, nm1 kp1 = k + 1 c c find l = pivot index c l = izamax(n-k+1,a(k,k),1) + k - 1 ipvt(k) = l c c zero pivot implies this column already triangularized c if (cabs1(a(l,k)) .eq. 0.0d0) go to 40 c c interchange if necessary c if (l .eq. k) go to 10 t = a(l,k) a(l,k) = a(k,k) a(k,k) = t 10 continue c c compute multipliers c t = -(1.0d0,0.0d0)/a(k,k) call zscal(n-k,t,a(k+1,k),1) c c row elimination with column indexing c do 30 j = kp1, n t = a(l,j) if (l .eq. k) go to 20 a(l,j) = a(k,j) a(k,j) = t 20 continue call zaxpy(n-k,t,a(k+1,k),1,a(k+1,j),1) 30 continue go to 50 40 continue info = k 50 continue 60 continue 70 continue ipvt(n) = n if (cabs1(a(n,n)) .eq. 0.0d0) info = n return end	scipy/integrate/linpack_lite/zgefa.f
! This file is part of toml-f. ! ! Copyright (C) 2019-2020 Sebastian Ehlert ! ! Licensed under either of Apache License, Version 2.0 or MIT license ! at your option; you may not use this file except in compliance with ! the License. ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. !> Version information on TOML-Fortran module tomlf_version implicit none private public :: tomlf_version_string, tomlf_version_compact !> String representation of the TOML-Fortran version character(len=), parameter :: tomlf_version_string = "0.2.0" !> Major version number of the above TOML-Fortran version integer, parameter :: major = 0 !> Minor version number of the above TOML-Fortran version integer, parameter :: minor = 2 !> Patch version number of the above TOML-Fortran version integer, parameter :: patch = 0 !> Compact numeric representation of the TOML-Fortran version integer, parameter :: tomlf_version_compact = major10000 + minor*100 + patch end module tomlf_version	src/tomlf/version.f90
SUBROUTINE WIND (ILFN) MLu C CHARACTER CA*1 MLu C DO 20 I=1,30000 MLu READ (ILFN,10,ERR=100,END=100) CA MLu 10 FORMAT (A) MLu 20 CONTINUE MLu C 100 CONTINUE MLu BACKSPACE ILFN M RETURN MLu END MLu	heclib/heclib_f/src/Support/wind.f
! -- Mode: Fortran; -- ! ! (C) 2014 by Argonne National Laboratory. ! See COPYRIGHT in top-level directory. ! subroutine MPI_Status_set_elements_f08(status, datatype, count, ierror) use, intrinsic :: iso_c_binding, only : c_loc, c_associated use, intrinsic :: iso_c_binding, only : c_int, c_ptr use :: mpi_f08, only : MPI_Status, MPI_Datatype use :: mpi_f08, only : MPI_STATUS_IGNORE, MPIR_C_MPI_STATUS_IGNORE, assignment(=) use :: mpi_c_interface, only : c_Datatype use :: mpi_c_interface, only : c_Status use :: mpi_c_interface, only : MPIR_Status_set_elements_c implicit none type(MPI_Status), intent(inout), target :: status type(MPI_Datatype), intent(in) :: datatype integer, intent(in) :: count integer, optional, intent(out) :: ierror type(c_Status), target :: status_c integer(c_Datatype) :: datatype_c integer(c_int) :: count_c integer(c_int) :: ierror_c if (c_int == kind(0)) then if (c_associated(c_loc(status), c_loc(MPI_STATUS_IGNORE))) then ierror_c = MPIR_Status_set_elements_c(MPIR_C_MPI_STATUS_IGNORE, datatype%MPI_VAL, count) else ierror_c = MPIR_Status_set_elements_c(c_loc(status), datatype%MPI_VAL, count) end if else datatype_c = datatype%MPI_VAL count_c = count if (c_associated(c_loc(status), c_loc(MPI_STATUS_IGNORE))) then ierror_c = MPIR_Status_set_elements_c(MPIR_C_MPI_STATUS_IGNORE, datatype_c, count_c) else ierror_c = MPIR_Status_set_elements_c(c_loc(status_c), datatype_c, count_c) status = status_c end if end if if (present(ierror)) ierror = ierror_c end subroutine MPI_Status_set_elements_f08	src/binding/fortran/use_mpi_f08/wrappers_f/status_set_elements_f08ts.f90
program scatter_vector include 'mpif.h' integer ndims,xmax,ymax,nnodes,myid,totelem parameter(ndims=2) parameter(xmax=1000,ymax=1000) parameter(niters=1) parameter (totelem=xmaxymax) integer comm,ierr integer status(MPI_STATUS_SIZE) double precision,allocatable,dimension(:,:) :: A double precision,allocatable,dimension(:) :: V,dindex1,dindex2,gV integer,allocatable,dimension(:) :: index1,index2 integer,allocatable,dimension(:) :: lindex1,lindex2 !distribute each array into nnodes processors except gV and index1 and index2 ! these last 3 arrays are global arrays. gv will hold the all local V's ! index1 and index2 will hold all the local lindex1's and lindex2's ! respectively integer xb,yb,i,j,nitems,xbv comm=MPI_COMM_WORLD call MPI_init(ierr) call MPI_COMM_RANK(comm,myid,ierr) call MPI_COMM_SIZE(comm,nnodes,ierr) !initialize the input matrixes A and allocate necessary spaces for A,B !partition the matrix a in (block ,) way xb = xmax/nnodes xbv = totelem/nnodes !allocate necessary arrays allocate(A(xb,ymax)) allocate(V(xbv)) allocate(gV(totelem)) allocate(index1(totelem)) allocate(index2(totelem)) allocate(dindex1(totelem)) allocate(dindex2(totelem)) allocate(lindex1(xbv)) allocate(lindex2(xbv)) !last processor is generating random index vectors index1 and index2 ! and partition them onto processors and send to correspoding processor !also last processor is generating random data vector V for each processor if (myid == nnodes -1) then call random_number(dindex1) call random_number(dindex2) index1 = xmaxdindex1 + 1 index2 = ymaxdindex2 + 1 do np = 0,nnodes-1 call random_number(V) V = 1000000.0V if (np < nnodes-1) then call MPI_SEND(V,xbv,MPI_DOUBLE_PRECISION,np,0,comm,ierr) call MPI_SEND(index1(xbvnp+1),xbv,MPI_INTEGER,np,0,comm,ierr) call MPI_SEND(index1(xbvnp+1),xbv,MPI_INTEGER,np,0,comm,ierr) endif enddo lindex1 = index1((nnodes-1)xbv+1:totelem) lindex2 = index2((nnodes-1)xbv+1:totelem) else call MPI_RECV(V,xbv,MPI_DOUBLE_PRECISION,nnodes-1,0,comm,status,ierr) call MPI_RECV(lindex1,xbv,MPI_INTEGER,nnodes-1,0,comm,status,ierr) call MPI_RECV(lindex1,xbv,MPI_INTEGER,nnodes-1,0,comm,status,ierr) endif !start timer ..... time_begin = MPI_Wtime() do iter = 1,niters !collect all the local V's in gV call MPI_ALLGATHER(V,xbv,MPI_DOUBLE_PRECISION, & gV,xbv,MPI_DOUBLE_PRECISION,comm,ierr) !collect all the local arrays index1's and index2's in index1 and index2 call MPI_ALLGATHER(lindex1,xbv,MPI_INTEGER,index1,& xbv,MPI_INTEGER,comm,ierr) call MPI_ALLGATHER(lindex2,xbv,MPI_INTEGER,index2,& xbv,MPI_INTEGER,comm,ierr) ilb = myidxbv+1 iub = (myid+1)xbv do i=1,totelem !If I am holding the vector index 'index1(i)' in my local array !I will get the gV(i) if ((index1(i) .ge. ilb).and.(index1(i).le.iub)) then A(index1(i)-ilb+1,index2(i)) = gV(i) endif enddo enddo ! Stop timer time_end = MPI_Wtime() if (myid == 0) then print ,'Elapsed time ',niters,'iterations for scatter' print ,'For matrix with dimensions',xmax,ymax ,'is' print ,time_end-time_begin ,'seconds' endif deallocate(a) deallocate(v) deallocate(gv) deallocate(index1) deallocate(index2) deallocate(lindex1) deallocate(lindex2) deallocate(dindex1) deallocate(dindex2) call MPI_FINALIZE(ierr) end SUBROUTINE all_to_all_int(myprocid,nnodes,comm,fx,global_fx,xbv,totelem) integer xbv,totelem integer fx(xbv),global_fx(totelem) integer myprocid,nnodes,comm include 'mpif.h' integer dest,source,nproc,dest_id,ierr integer status(MPI_STATUS_SIZE) do j=1,xbv global_fx(xbvmyprocid+1+j) = fx(j) enddo nproc = nnodes kcnt = myprocid dest = mod(myprocid+1,nproc) source = mod(myprocid-1+nproc,nproc) do i=1,nproc-1 if (mod (myprocid,2) .eq. 0) then call MPI_SEND(global_fx(kcntxbv+1),xbv,& MPI_INTEGER,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcntxbv+1),xbv, & MPI_INTEGER,source,0,comm,status,ierr) endif if (mod (myprocid,2) .eq. 1) then call MPI_SEND(global_fx(kcntxbv+1),xbv,& MPI_INTEGER,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcntxbv+1),xbv, & MPI_INTEGER,source,0,comm,status,ierr) endif kcnt = ikcnt enddo return end SUBROUTINE all_to_all_float(myprocid,nnodes,comm,fx,global_fx,xbv,totelem) integer xbv,totelem double precision fx(xbv),global_fx(totelem) integer myprocid,nnodes,comm include 'mpif.h' integer dest,source,nproc,dest_id,ierr integer status(MPI_STATUS_SIZE) do j=1,xbv global_fx(xbvmyprocid+1+j) = fx(j) enddo nproc = nnodes kcnt = myprocid dest = mod(myprocid+1,nproc) source = mod(myprocid-1+nproc,nproc) do i=1,nproc-1 if (mod (myprocid,2) .eq. 0) then call MPI_SEND(global_fx(kcntxbv+1),xbv,& MPI_DOUBLE_PRECISION,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcntxbv+1),xbv, & MPI_DOUBLE_PRECISION,source,0,comm,status,ierr) endif if (mod (myprocid,2) .eq. 1) then call MPI_SEND(global_fx(kcntxbv+1),xbv,& MPI_DOUBLE_PRECISION,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcntxbv+1),xbv, & MPI_DOUBLE_PRECISION,source,0,comm,status,ierr) endif kcnt = ikcnt enddo return end	files/mpi/scatter_with_mpi.f
c c ------------------------------------------------------- c subroutine fluxad(xfluxm,xfluxp,yfluxm,yfluxp, 1 svdflx,mptr,mitot,mjtot, 2 nvar,lenbc,lratiox,lratioy,ng,dtf,dx,dy) c implicit double precision (a-h,o-z) include "call.i" c :::::::::::::::::::: FLUXAD :::::::::::::::::::::::::::::::::: c save fine grid fluxes at the border of the grid, for fixing c up the adjacent coarse cells. at each edge of the grid, only c save the plus or minus fluxes, as necessary. For ex., on c left edge of fine grid, it is the minus xfluxes that modify the c coarse cell. c ::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::: dimension xfluxm(mitot,mjtot,nvar), yfluxm(mitot,mjtot,nvar) dimension xfluxp(mitot,mjtot,nvar), yfluxp(mitot,mjtot,nvar) dimension svdflx(nvar,lenbc) nx = mitot-2ng ny = mjtot-2ng nyc = ny/lratioy nxc = nx/lratiox c ::::: left side saved first lind = 0 do 100 j=1,nyc lind = lind + 1 jfine = (j-1)lratioy + ng do 110 ivar = 1, nvar do 120 l=1,lratioy svdflx(ivar,lind) = svdflx(ivar,lind) + 1 xfluxm(ng+1,jfine+l,ivar)dtfdy c write(dbugunit,900)lind,xfluxm(1,jfine+l,ivar), c . xfluxp(1,jfine+l,ivar) 900 format(' lind ', i4,' m & p ',2e15.7,' svd ',e15.7) 120 continue 110 continue 100 continue c ::::: top side c write(dbugunit,)" saving top side " do 200 i=1,nxc lind = lind + 1 ifine = (i-1)lratiox + ng do 210 ivar = 1, nvar do 220 l=1,lratiox svdflx(ivar,lind) = svdflx(ivar,lind) + 1 yfluxp(ifine+l,mjtot-ng+1,ivar)dtfdx c write(dbugunit,900)lind,yfluxm(ifine+l,mjtot-ng+1, c . ivar),yfluxp(ifine+l,mjtot-ng+1,ivar), c . svdflx(ivar,lind) 220 continue 210 continue 200 continue c ::::: right side do 300 j=1,nyc lind = lind + 1 jfine = (j-1)lratioy + ng do 310 ivar = 1, nvar do 320 l=1,lratioy svdflx(ivar,lind) = svdflx(ivar,lind) + 1 xfluxp(mitot-ng+1,jfine+l,ivar)dtfdy c write(dbugunit,900)lind,xfluxm(mitot-ng+1,jfine+l, c ivar),xfluxp(mitot-ng+1,jfine+l,ivar) 320 continue 310 continue 300 continue c ::::: bottom side c write(dbugunit,)" saving bottom side " do 400 i=1,nxc lind = lind + 1 ifine = (i-1)lratiox + ng do 410 ivar = 1, nvar do 420 l=1,lratiox svdflx(ivar,lind) = svdflx(ivar,lind) + 1 yfluxm(ifine+l,ng+1,ivar)dtfdx c write(dbugunit,900)lind,yfluxm(ifine+l,ng+1,ivar), c . yfluxp(ifine+l,ng+1,ivar),svdflx(ivar,lind) 420 continue 410 continue 400 continue return end	amrclaw/2d/lib/fluxad.f
SUBROUTINE gather_real(SEND,RECV,SIZE,root) IMPLICIT NONE include 'mpif.h' INTEGER SIZE, ROOT REAL8 SEND(), RECV() INTEGER IERR CALL MPI_GATHER(send,size,MPI_DOUBLE_PRECISION, & recv,size,MPI_DOUBLE_PRECISION,ROOT,MPI_COMM_WORLD,IERR) RETURN END SUBROUTINE SUBROUTINE gatherv_real( SEND, ssize, RECV, & rsize, rdisp, root ) IMPLICIT NONE include 'mpif.h' INTEGER ssize, ROOT INTEGER rsize(), rdisp() REAL8 SEND(), RECV() INTEGER IERR CALL MPI_GATHERV( send, ssize, MPI_DOUBLE_PRECISION, & recv, rsize, rdisp, MPI_DOUBLE_PRECISION, ROOT, & MPI_COMM_WORLD, IERR ) RETURN END SUBROUTINE	comm/gather.f
c Wrappers allowing to link MacOSX's Accelerate framework to c gfortran compiled code c Accelerate BLAS is cblas (http://www.netlib.org/blas/blast-forum/cblas.tgz); c these wrappers call the cblas functions via the C-functions defined c in veclib_cabi.c REAL FUNCTION WSDOT( N, SX, INCX, SY, INCY ) INTEGER INCX, INCY, N REAL SX(), SY() REAL RESULT EXTERNAL ACC_SDOT CALL ACC_SDOT( N, SX, INCX, SY, INCY, RESULT ) WSDOT = RESULT END FUNCTION REAL FUNCTION WSDSDOT( N, SB, SX, INCX, SY, INCY ) REAL SB INTEGER INCX, INCY, N REAL SX(), SY() REAL RESULT EXTERNAL ACC_SDSDOT CALL ACC_SDSDOT( N, SB, SX, INCX, SY, INCY, RESULT ) WSDSDOT = RESULT END FUNCTION REAL FUNCTION WSASUM( N, SX, INCX ) INTEGER INCX, N REAL SX() REAL RESULT EXTERNAL ACC_SASUM CALL ACC_SASUM( N, SX, INCX, RESULT ) WSASUM = RESULT END FUNCTION REAL FUNCTION WSNRM2( N, SX, INCX ) INTEGER INCX, N REAL SX() REAL RESULT EXTERNAL ACC_SNRM2 CALL ACC_SNRM2( N, SX, INCX, RESULT ) WSNRM2 = RESULT END FUNCTION REAL FUNCTION WSCASUM( N, CX, INCX ) INTEGER INCX, N COMPLEX CX() REAL RESULT EXTERNAL ACC_SCASUM CALL ACC_SCASUM( N, CX, INCX, RESULT ) WSCASUM = RESULT END FUNCTION REAL FUNCTION WSCNRM2( N, CX, INCX ) INTEGER INCX, N COMPLEX CX() REAL RESULT EXTERNAL ACC_SCNRM2 CALL ACC_SCNRM2( N, CX, INCX, RESULT ) WSCNRM2 = RESULT END FUNCTION c The LAPACK in the Accelerate framework is a CLAPACK c (www.netlib.org/clapack) and has hence a different interface than the c modern Fortran LAPACK libraries. These wrappers here help to link c Fortran code to Accelerate. c This wrapper files covers all Lapack functions that are in all versions c before Lapack 3.2 (Lapack 3.2 adds CLANHF and SLANSF that would be c problematic, but those do not exist in OSX <= 10.6, and are actually not c used in scipy) REAL FUNCTION WCLANGB( NORM, N, KL, KU, AB, LDAB, WORK ) CHARACTER NORM INTEGER KL, KU, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANGB DOUBLE PRECISION CLANGB WCLANGB = REAL(CLANGB( NORM, N, KL, KU, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANGE( NORM, M, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, M, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANGE DOUBLE PRECISION CLANGE WCLANGE = REAL(CLANGE( NORM, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANGT( NORM, N, DL, D, DU ) CHARACTER NORM INTEGER N COMPLEX D( * ), DL( * ), DU( * ) EXTERNAL CLANGT DOUBLE PRECISION CLANGT WCLANGT = REAL(CLANGT( NORM, N, DL, D, DU )) END FUNCTION REAL FUNCTION WCLANHB( NORM, UPLO, N, K, AB, LDAB, WORK ) CHARACTER NORM, UPLO INTEGER K, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANHB DOUBLE PRECISION CLANHB WCLANHB = REAL(CLANHB( NORM, UPLO, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANHE( NORM, UPLO, N, A, LDA, WORK ) CHARACTER NORM, UPLO INTEGER LDA, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANHE DOUBLE PRECISION CLANHE WCLANHE = REAL(CLANHE( NORM, UPLO, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANHP( NORM, UPLO, N, AP, WORK ) CHARACTER NORM, UPLO INTEGER N REAL WORK( * ) COMPLEX AP( * ) EXTERNAL CLANHP DOUBLE PRECISION CLANHP WCLANHP = REAL(CLANHP( NORM, UPLO, N, AP, WORK )) END FUNCTION REAL FUNCTION WCLANHS( NORM, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANHS DOUBLE PRECISION CLANHS WCLANHS = REAL(CLANHS( NORM, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANHT( NORM, N, D, E ) CHARACTER NORM INTEGER N REAL D( * ) COMPLEX E( * ) EXTERNAL CLANHT DOUBLE PRECISION CLANHT WCLANHT = REAL(CLANHT( NORM, N, D, E )) END FUNCTION REAL FUNCTION WCLANSB( NORM, UPLO, N, K, AB, LDAB, WORK ) CHARACTER NORM, UPLO INTEGER K, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANSB DOUBLE PRECISION CLANSB WCLANSB = REAL(CLANSB( NORM, UPLO, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANSP( NORM, UPLO, N, AP, WORK ) CHARACTER NORM, UPLO INTEGER N REAL WORK( * ) COMPLEX AP( * ) EXTERNAL CLANSP DOUBLE PRECISION CLANSP WCLANSP = REAL(CLANSP( NORM, UPLO, N, AP, WORK )) END FUNCTION REAL FUNCTION WCLANSY( NORM, UPLO, N, A, LDA, WORK ) CHARACTER NORM, UPLO INTEGER LDA, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANSY DOUBLE PRECISION CLANSY WCLANSY = REAL(CLANSY( NORM, UPLO, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER K, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANTB DOUBLE PRECISION CLANTB WCLANTB = REAL(CLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANTP( NORM, UPLO, DIAG, N, AP, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER N REAL WORK( * ) COMPLEX AP( * ) EXTERNAL CLANTP DOUBLE PRECISION CLANTP WCLANTP = REAL(CLANTP( NORM, UPLO, DIAG, N, AP, WORK )) END FUNCTION REAL FUNCTION WCLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER LDA, M, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANTR DOUBLE PRECISION CLANTR WCLANTR = REAL(CLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSCSUM1( N, CX, INCX ) INTEGER INCX, N COMPLEX CX( * ) EXTERNAL SCSUM1 DOUBLE PRECISION SCSUM1 WSCSUM1 = REAL(SCSUM1( N, CX, INCX )) END FUNCTION REAL FUNCTION WSLANGB( NORM, N, KL, KU, AB, LDAB, WORK ) CHARACTER NORM INTEGER KL, KU, LDAB, N REAL AB( LDAB, * ), WORK( * ) EXTERNAL SLANGB DOUBLE PRECISION SLANGB WSLANGB = REAL(SLANGB( NORM, N, KL, KU, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WSLANGE( NORM, M, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, M, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANGE DOUBLE PRECISION SLANGE WSLANGE = REAL(SLANGE( NORM, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLANGT( NORM, N, DL, D, DU ) CHARACTER NORM INTEGER N REAL D( * ), DL( * ), DU( * ) EXTERNAL SLANGT DOUBLE PRECISION SLANGT WSLANGT = REAL(SLANGT( NORM, N, DL, D, DU )) END FUNCTION REAL FUNCTION WSLANHS( NORM, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANHS DOUBLE PRECISION SLANHS WSLANHS = REAL(SLANHS( NORM, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLANSB( NORM, UPLO, N, K, AB, LDAB, WORK ) CHARACTER NORM, UPLO INTEGER K, LDAB, N REAL AB( LDAB, * ), WORK( * ) EXTERNAL SLANSB DOUBLE PRECISION SLANSB WSLANSB = REAL(SLANSB( NORM, UPLO, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WSLANSP( NORM, UPLO, N, AP, WORK ) CHARACTER NORM, UPLO INTEGER N REAL AP( * ), WORK( * ) EXTERNAL SLANSP DOUBLE PRECISION SLANSP WSLANSP = REAL(SLANSP( NORM, UPLO, N, AP, WORK )) END FUNCTION REAL FUNCTION WSLANST( NORM, N, D, E ) CHARACTER NORM INTEGER N REAL D( * ), E( * ) EXTERNAL SLANST DOUBLE PRECISION SLANST WSLANST = REAL(SLANST( NORM, N, D, E )) END FUNCTION REAL FUNCTION WSLANSY( NORM, UPLO, N, A, LDA, WORK ) CHARACTER NORM, UPLO INTEGER LDA, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANSY DOUBLE PRECISION SLANSY WSLANSY = REAL(SLANSY( NORM, UPLO, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER K, LDAB, N REAL AB( LDAB, * ), WORK( * ) EXTERNAL SLANTB DOUBLE PRECISION SLANTB WSLANTB = REAL(SLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WSLANTP( NORM, UPLO, DIAG, N, AP, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER N REAL AP( * ), WORK( * ) EXTERNAL SLANTP DOUBLE PRECISION SLANTP WSLANTP = REAL(SLANTP( NORM, UPLO, DIAG, N, AP, WORK )) END FUNCTION REAL FUNCTION WSLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER LDA, M, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANTR DOUBLE PRECISION SLANTR WSLANTR = REAL(SLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLAPY2( X, Y ) REAL X, Y EXTERNAL SLAPY2 DOUBLE PRECISION SLAPY2 WSLAPY2 = REAL(SLAPY2( X, Y )) END FUNCTION REAL FUNCTION WSLAPY3( X, Y, Z ) REAL X, Y, Z EXTERNAL SLAPY3 DOUBLE PRECISION SLAPY3 WSLAPY3 = REAL(SLAPY3( X, Y, Z )) END FUNCTION REAL FUNCTION WSLAMCH( CMACH ) CHARACTER CMACH EXTERNAL SLAMCH DOUBLE PRECISION SLAMCH WSLAMCH = REAL(SLAMCH( CMACH )) END FUNCTION REAL FUNCTION WSLAMC3( A, B ) REAL A, B EXTERNAL SLAMC3 DOUBLE PRECISION SLAMC3 WSLAMC3 = REAL(SLAMC3( A, B )) END FUNCTION	scipy/_build_utils/src/wrap_accelerate_f.f
! Copyright (c) 2021-2022, University of Colorado Denver. All rights reserved. ! ! This file is part of <T>LAPACK. ! <T>LAPACK is free software: you can redistribute it and/or modify it under ! the terms of the BSD 3-Clause license. See the accompanying LICENSE file. subroutine ssymm ( & layout, side, uplo, m, n, alpha, A, lda, B, ldb, beta, C, ldc ) use, intrinsic :: iso_c_binding use constants, & only: wp => sp, & blas_size implicit none character :: layout, side, uplo integer(blas_size) :: m, n, lda, ldb, ldc real(wp) :: alpha, beta real(wp), target :: A, B, C character(c_char) :: c_layout, c_side, c_uplo include "tblas.fi" c_layout = layout c_side = side c_uplo = uplo call ssymm_ ( & c_layout, c_side, c_uplo, m, n, alpha, & c_loc(A), lda, c_loc(B), ldb, beta, c_loc(C), ldc ) end subroutine	src/blas/symm.f90
c read a few eigenvectors, a spectrum, and try to fit z program fitz include 'specarray.h' parameter(NMAXVECTS=12) parameter(NMAXSTEP=2NLOGWMAX) c scale sky by estimating read and photon noise ? parameter (IFSCALENOISE=1) c plot intermediate steps? parameter (IFPLOTALL=0) c read spectrum names from a file? parameter (IFFILE=1) c overplot the actual z, when known? parameter (IFREALZ=1) c max number of minima to find and zestimates to return parameter (NMAXEST=12) c real evects(NMAXVECTS,NLOGWMAX) integer koffset,nvmax,nwlmax real z common /vectorfit/ koffset,z,nvmax,nwlmax, $ evects(NMAXVECTS,NLOGWMAX) real spec1(NWAVEMAX),espec1(NWAVEMAX) real spec2(NLOGWMAX),espec2(NLOGWMAX) real spec3(NLOGWMAX),espec3(NLOGWMAX) real tmpspec(NLOGWMAX),wavelog(NLOGWMAX),wavelin(NWAVEMAX) integer ifit(NLOGWMAX) real wfit(NLOGWMAX),sfit(NLOGWMAX),efit(NLOGWMAX) real rifit(NLOGWMAX),fitvect(NLOGWMAX) real waverest1(NLOGWMAX) real wrestlin(NWAVEMAX) real zp1log(NMAXSTEP),zarr(NMAXSTEP) real rnparr(NMAXSTEP) integer indkarr(NMAXEST) real diffarr(NMAXEST),zestarr(NMAXEST) c real xpl(2),ypl(2) c real zout(NLOGWMAX),zchisq(NLOGWMAX) character sname60,esname60,vname60 character answ3,tlabel60,xlabel60 character fsname60,fename60,fzname60 integer isize(7) c stuff for svdfit real uu(NLOGWMAX,NMAXVECTS) real vv(NMAXVECTS,NMAXVECTS),ww(NMAXVECTS) real acoeff(NMAXVECTS),evals(NMAXVECTS) real chifit(NMAXSTEP),rchifit(NMAXSTEP) external funcs include 'pcredshift.h' c call pgbeg(0,'?',2,2) call pgbeg(0,'?',1,1) call pgscf(2) call pgsch(1.3) write(,'("Full continuum fit subtraction [1,y-yes]? ",$)') read(,'(a1)') answ if (answ(1:1) .eq. '0' .or. answ(1:1) .eq. 'n' .or. $ answ(1:1) .eq. 'N') then ifcontsub = 0 else ifcontsub = 1 end if write(,'("Do mean subtraction [1,y-yes]? ",$)') read(,'(a1)') answ if (answ(1:1) .eq. '0' .or. answ(1:1) .eq. 'n' .or. $ answ(1:1) .eq. 'N') then ifmeansub = 0 else ifmeansub = 1 end if 100 write(, $ '("Diameter for median smoothing, pixels [0,1=none]: ",$)') read(,'(a3)') answ if (answ(1:3) .eq. ' ') then ndiamed = 0 else read(answ,,err=100) ndiamed end if c write(, c $ '("Restwave spectrum region to use in PCA, min, max: ",$)') c read(,) pcawmin,pcawmax c pwminlog = log10(pcawmin) c pwmaxlog = log10(pcawmax) nvmax=NMAXVECTS nwlmax=NLOGWMAX c open file and read eigenvectors. nvects is returned as c the # of vectors to use, nw is the actual # of wavelength pixels call readevects(evects,nvmax,nwlmax,waverest1,nv,nw) nwlog = nw c figure out w0 and dw for the eigenvectors. This is in log w c There is no check yet to make sure it's evenly spaced. dwrlog = (waverest1(nw) - waverest1(1)) / (nwlog-1.) w0rlog = waverest1(1) - dwrlog do i=1,nwlog wrestlin(i) = 10*waverest1(i) end do c write(,) "w0rlog, dwrlog = ", w0rlog,dwrlog c plot the eigenvectors call pgsubp(2,2) do i=1,nv do j=1,nwlog tmpspec(j) = evects(i,j) end do call showspec(nwlog,waverest1,tmpspec) write(tlabel,'(a,1x,i3)') "eigenvector",i-1 call pglabel("log wavelength"," ",tlabel) end do c call pgsubp(1,1) call pgsubp(2,2) 200 continue if (IFFILE .eq. 1) then write(,'("File with spectrum names: ",$)') read(,'(a)') fsname open(10,file=fsname,status='old',err=200) write(,'("File with sky/rms names: ",$)') read(,'(a)') fename open(11,file=fename,status='old',err=200) if (IFREALZ .eq. 1) then write(,'("File with actual zs for plot [none]: ",$)') read(,'(a)') fzname if (fzname(1:3) .ne. ' ') then open(12,file=fzname,status='old',err=202) ifzfile=1 else c no actual z file ifzfile=0 end if 202 continue end if end if open(2,file='fitz.out',status='unknown') open(3,file='fitz.out1',status='unknown') open(4,file='fitz.out2',status='unknown') 220 continue c open files and read spec and error, with wavelength calib. if (IFFILE .eq. 1) then read(10,'(a)',err=666,end=666) sname read(11,'(a)',err=666,end=666) esname zreal=1.0e6 if (IFREALZ .eq. 1 .and. ifzfile .eq. 1) then read(12,,err=222,end=222) zreal end if 222 continue else write(,'("fits file with spectrum [quit]: ",$)') read(,'(a)') sname if (sname(1:3) .eq. ' ') go to 666 write(,'("fits file with sky/rms [quit]: ",$)') read(,'(a)') esname if (esname(1:3) .eq. ' ') go to 666 if (IFREALZ .eq. 1) then write(,'("actual z for plotting [none]: ",$)') read(,'(a)') fzname zreal=1.0e6 if (fzname(1:3) .ne. ' ') then read(fzname,,err=232) zreal end if 232 continue end if end if call imopen(sname,1,imgs,ier) if (ier .ne. 0) go to 220 call imgsiz(imgs,isize,idim,itype,ier) c trim a buffer at end to get rid of the region where Marc encoded c the slit number ibuff2 = 25 nwspec = isize(1) - ibuff2 call imopen(esname,1,imge,ier) c call imgsiz(imge,isize,idim,itype,ier) if (ier .ne. 0) go to 220 call imgl1r(imgs,spec1,ier) call imgl1r(imge,espec1,ier) c find wavelength of pixel 0, and dw/dpix call imgkwr(imgs,'CRPIX1',refpix,ier) c if (ier .ne. 0) refpix = badset if (ier .ne. 0) then ier=0 refpix = 0. end if call imgkwr(imgs,'CRVAL1',refw,ier) if (ier .ne. 0) refw = badset call imgkwr(imgs,'CDELT1',dwsp,ier) if (ier .ne. 0 .or. abs(dwsp) .lt. 1.e-3) then ier=0 call imgkwr(imgs,'CD1_1',dwsp,ier) if (ier .ne. 0) dwsp = badset end if if (refpix .gt. bad .and. refw .gt. bad .and. dwsp .gt. bad) $ then w0sp = refw - refpixdwsp c dws = dwsp else c we should really do something here c w0s = badset c dws = badset write(, $ '("Couldnt get w0 and dw for ",a," enter w0,dw: ",$)') sname read(,) w0sp,dwsp end if write(,) "w0sp, dwsp = ", w0sp,dwsp call imclos(imgs,ier) call imclos(imge,ier) c zero out anything beyond the actual spectrum do i=nwspec+1,nw spec1(i) = 0.0 espec1(i) = 0.0 end do c try to clean out bad values badmax = 5000. do i=1,nw if(spec1(i) .lt. bad .or. spec1(i) .gt. badmax) $ spec1(i) = badset if(espec1(i) .lt. bad .or. espec1(i) .gt. badmax) $ espec1(i) = badset end do c Figure out the ref wavelength for the log rebinning so that c it falls on the wl scale of the eigenvectors. tmp = log10(w0sp) itmp = int( (tmp-w0rlog)/dwrlog ) w0log = w0rlog + dwrlogitmp c k0offset is the offset in integer index of log wavelength c from the beginning of the eigenvectors to the spectrum to be fit. k0offset = itmp dwlog = dwrlog c write(,) "w0log, dwlog = ", w0log,dwlog c convert sky spectrum into std.dev spectrum. This might be better c done after smoothing and log rebinning? c Placeholder assumptions: 2x30 min exposures, 5 pixel diam c extraction window. if (IFSCALENOISE .eq. 1) then nexp = 2 exptime = 30.60. c dpix = 5. dpix = 1. call scalenoise(espec1,nwspec,nexp,exptime,dpix,espec2) else c or if the sky spectrum is actually a rms/per pixel spectrum c we could do nothing, or scale down by a factor of c sqrt(#pixels). #pixels is most likely 7. do i=1,nwspec espec2(i) = espec1(i) / sqrt(7.0) end do end if do i=1,nw wavelin(i) = w0sp+idwsp wavelog(i) = log10(wavelin(i)) end do if (IFPLOTALL .ne. 0) then call showspec(nwspec,wavelin,spec1) call pgqci(indexc) call pgsci(3) call pgline(nwspec,wavelin,espec2) call pgsci(indexc) call pglabel("wavelength","counts","spectrum and error") end if c blank out? blankoutsky is supposed to run on a 2-d array call blankoutsky(spec1,1,1,nwspec,wavelin) cc find region of good data c call findends(nwspec,spec1,imin,imax) c imingood = imin c nwspecgood = imax-imin+1 c median smooth if (ndiamed .gt. 1) then call medsmooth(nwspec,spec1,ndiamed,spec2) c call medsmooth(nwspecgood,spec1(imingood),ndiamed, c $ spec2(imingood)) c attempt to compensate the errors. I divided ndiamed by 2 as c a hack since adjacent pixels are not independent (assume the # C of indep measurements is about pixels/2 if well sampled) tmp = sqrt(max(ndiamed/2.,1.)) do i=1,nwspec espec2(i) = espec2(i) / tmp end do else do i=1,nwspec spec2(i) = spec1(i) espec2(i) = espec2(i) end do end if if (IFPLOTALL .ne. 0) then call showspec(nwspec,wavelin,spec2) call pglabel("wavelength","counts","median smoothed") call pgqci(indexc) call pgsci(3) call pgline(nwspec,wavelin,espec2) call pgsci(indexc) end if c log rebin both. log rebinning the std dev the same way is a c total hack, thus it is better done on the variance call logrebin(spec2,nwspec,w0sp,dwsp,nwlog,w0log,dwlog,spec3) c call logrebin(spec2(imingood),nwspecgood,w0sp,dwsp, c $ nwlog,w0log,dwlog,spec3) c convert std dev to variance do i=1,nwlog espec3(i) = espec2(i)*2 end do call logrebin(espec3,nwspec,w0sp,dwsp,nwlog,w0log,dwlog,espec2) c call logrebin(espec3(imingood),nwspecgood,w0sp,dwsp, c $ nwlog,w0log,dwlog,espec2) c convert back do i=1,nwlog espec3(i) = sqrt(max(espec2(i),1.e-2)) end do if (IFPLOTALL .ne. 0) then call showspec(nwlog,wavelog,spec3) call pglabel("log wavelength","counts","log rebinned") call pgqci(indexc) call pgsci(3) call pgline(nwlog,wavelog,espec3) call pgsci(indexc) end if c find&clean ends call findends(nwlog,spec3,imin,imax) call cleanends(nwlog,spec3,imin,imax) write(,) "imin, imax = ", imin,imax c continuum subtract if (ifcontsub .ne. 0) then contwrad = 100.dwlog call contsubmed(spec3,nwlog,dwlog,contwrad) else call contsubconst(spec3,nwlog) end if if (IFPLOTALL .ne. 0) then call showspec(nwlog,wavelog,spec3) call pgqci(indexc) call pgsci(3) call pgline(nwlog,wavelog,espec3) call pgsci(indexc) call pglabel("log wavelength","counts","continuum subtracted") end if c copy wave and spec to temp array, cleaning out bad points npfit=0 do i=1,nwlog if(spec3(i) .gt. bad .and. espec3(i) .gt. bad) then npfit=npfit+1 ifit(npfit) = i rifit(npfit) = real(i) wfit(npfit) = w0log + idwlog sfit(npfit) = spec3(i) efit(npfit) = espec3(i) end if end do write (,) npfit, " points to fit" c if (IFPLOTALL .ne. 0) then call showspec(npfit,wfit,sfit) call pgqci(indexc) call pgsci(3) call pgline(npfit,wfit,efit) call pgsci(indexc) call pglabel("log wavelength","counts", $ "spectrum and error to fit, "//sname) c end if c What are the good data regions? The spectrum was c good from imin to imax (before cleanends). Eigenvector 1 c (actually the mean) is good from jmin to jmax. do j=1,nwlog spec2(j) = evects(1,j) end do call findends(nwlog,spec2,jmin,jmax) c write(,) 'imin,imax,jmin,jmax, k0off: ',imin,imax,jmin,jmax, c $ k0offset c loop over steps in log w. the spectrum, indexed by i, c is offset to the red of the eigenvectors, indexed by j, c by k steps: j+k = i, k = i-j c and note that the two scales are offset by k0offset, so when c z=0, i=j-k0offset. Typically the spectrum starts redder c than the eigenv. so k0offset>0. If we started at c z=0, k would start at -koffset. c log w = log wrest + log(1+z), so kdwlog = log(1+z) c Start with an offset of z=-0.01 kmin = int(log10(1-0.01)/dwlog) - k0offset c For pos. redshift, i+k0offset>j (i is position in spectrum, j in evect) c Go to the point where only 10 pts overlap, which doesn't c depend on k0offset. kmax = imax-10-jmin nk=kmax-kmin+1 c write(,) "kmin, kmax: ",kmin,kmax tmp1 = (kmin+k0offset)dwlog tmp2 = (kmax+k0offset)dwlog c write(,) "log(1+z): ",tmp1,tmp2," z: ", c $ 10tmp1-1.0,10tmp2-1.0 c open(2,file='fitz.out1',status='unknown') do k=kmin,kmax c kindex is 1 when k=kmin kindex = k-kmin+1 c for passing k to the funcs subroutine koffset=k zp1log(kindex) = (k+k0offset)dwlog zarr(kindex) = 10zp1log(kindex) - 1.0 z = zarr(kindex) c we should only use the data that overlaps the eigenvectors, c the eigenvectors extend from jmin to jmax, and i=j+k. c But, since we cleaned out bad points, the spectrum to fit c is no longer evenly spaced in dwlog, so ifitmax is not c trivial to calculate. Bummer! c that is, what I've been calling "i" is the index of spec3(i), c and the contents of ifit() and rifit(), but it is not the c index of ifit iminorig = jmin+k imaxorig = jmax+k c now find the corresponding index of ifit - i.e. c we want iminfit where ifit(iminfit) >= iminorig. Confused yet? call findindex(npfit,ifit,iminorig,imaxorig,iminfit,imaxfit) npfittmp = imaxfit-iminfit+1 rnparr(kindex) = real(npfittmp) c write(,) "iminfit,imaxfit: ",iminfit,imaxfit,npfittmp c now we gotta only use the matching points in the eigenvectors, c which is a PITA. Actually we've solved this through the way c that funcs() works. c do fit using svdfit or something like it. c Each of the functions will be an eigenvector c call bigsvdfit(wfit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) c call bigsvdfit(rifit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) call bigsvdfit(rifit(iminfit),sfit(iminfit),efit(iminfit), $ npfittmp,acoeff,nv,uu,vv,ww,nwlmax,nvmax,chisq1,funcs) chifit(kindex) = chisq1 c to get rid of division by zero when there were no points c to fit. rchifit(kindex) = chisq1/max(real(npfittmp),1.e-4) c write(2,) k,kindex,npfittmp,zp1log(kindex),zarr(kindex), c $ chifit(kindex),rchifit(kindex) end do c close(2) c find the absolute minimum in chi-squared. there are probably c better ways to do this in the long run c call findabsmin(nk,chifit,indkmin,chimin) c call findabsmin(nk,rchifit,indkrmin,rchimin) c try finding the point with the biggest drop below "continuum" c i.e. deepest local minimum call findlocmin(nk,chifit,indkmin,chimin,chiminavg) call findlocmin(nk,rchifit,indkrmin,rchimin,rchiminavg) c find the n deepest local minima in chi squared nfind=5 call findmultmin(nk,chifit,nfind,indkarr,diffarr) zmin=zarr(indkmin) zrmin=zarr(indkrmin) do i=1,nfind zestarr(i) = zarr(indkarr(i)) end do write(,) "chisq min at ",indkmin,zmin,chimin,chiminavg write(,) "reduced chisq min at ",indkrmin,zrmin,rchimin, $ rchiminavg c write stuff to output files. c 2 - fitz.out gets # of z-estimates, z-estimates, spec name c 3 - fitz.out1 gets specname(truncated), z(deepest chisq min) , c z(deepest rchisq min), chi-min, chi-"continuum", c rchi-min, rchi-"continuum" c 4 - fitz.out2 gets for each z-est: k-index, z-est, depth in chisq c write(3,'(a,f7.4,3x,f7.4)') sname,zmin,zrmin write(3,'(a25,2(3x,f7.4),3x,4(1x,1pe10.3))') $ sname,zmin,zrmin,chimin,chiminavg,rchimin,rchiminavg write(2,'(i2,$)') nfind do i=1,nfind write(2,'(2x,f7.4$)') zestarr(i) write(4,'(i5,2x,f7.4,2x,f9.1,$)') indkarr(i),zestarr(i), $ diffarr(i) end do write(2,'(2x,a25)') sname write(4,'(2x,a25)') sname c plot c call showspec(nk,zp1log,chifit) c call plotz(log10(1.+zreal),log10(1.+zmin),log10(1+zrmin)) c write(xlabel,1010) "log(1+z)",zreal,zmin,zrmin c call pglabel(xlabel,"chi-squared",sname) call showspec(nk,zarr,chifit) call plotz(zreal,zmin,zrmin) write(xlabel,1010) "z",zreal,zmin,zrmin call pglabel(xlabel,"chi-squared",sname) call showspec(nk,zarr,rchifit) call plotz(zreal,zmin,zrmin) write(xlabel,1010) "z",zreal,zmin,zrmin call pglabel(xlabel,"reduced chi-squared",sname) 1010 format(a,", z=",f7.4," zest1=",f7.4," zest2=",f7.4) c call showspec(nk,zarr,rnparr) c call pglabel("z","number of points in fit",sname) c calculate the fit at chimin. Redo the fit to get the coeffs c for the best-fit spectrum koffset=indkmin+kmin-1 call findindex(npfit,ifit,jmin+koffset,jmax+koffset, $ iminfit,imaxfit) npfittmp=imaxfit-iminfit+1 c write(,) "iminfit,imaxfit: ",iminfit,imaxfit,npfittmp c call bigsvdfit(rifit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) call bigsvdfit(rifit(iminfit),sfit(iminfit),efit(iminfit), $ npfittmp,acoeff,nv,uu,vv,ww,nwlmax,nvmax,chisq1,funcs) write(,) "coeffs ",(acoeff(i),i=1,nv) do i=1,npfit call funcs(rifit(i),evals,nv) fitvect(i) = 0.0 do j=1,nv fitvect(i) = fitvect(i) + acoeff(j)evals(j) end do end do call showspec(npfit,wfit,sfit) call pglabel("log wavelength","counts"," ") call pgmtxt('T',2.5,0.0,0.0,sname) call pgmtxt('T',1.5,0.0,0.0,"spectrum and best fits") call pgqci(indexc) call pgsci(3) call pgline(npfit,wfit,fitvect) write(tlabel,'(a,f7.4)') "chi-sq, z=",zmin call pgmtxt('T',2.5,1.0,1.0,tlabel) call pgsci(indexc) c calculate the fit at rchimin koffset=indkrmin+kmin-1 call findindex(npfit,ifit,jmin+koffset,jmax+koffset, $ iminfit,imaxfit) npfittmp=imaxfit-iminfit+1 c call bigsvdfit(rifit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) call bigsvdfit(rifit(iminfit),sfit(iminfit),efit(iminfit), $ npfittmp,acoeff,nv,uu,vv,ww,nwlmax,nvmax,chisq1,funcs) c write(,) "coeffs ",(acoeff(i),i=1,nv) do i=1,npfit call funcs(rifit(i),evals,nv) fitvect(i) = 0.0 do j=1,nv fitvect(i) = fitvect(i) + acoeff(j)evals(j) end do end do call pgqci(indexc) call pgsci(2) call pgline(npfit,wfit,fitvect) write(tlabel,'(a,f7.4)') "red.chisq, z=",zrmin call pgmtxt('T',1.5,1.0,1.0,tlabel) call pgsci(indexc) go to 220 666 continue close(2) close(3) close(4) close(10) close(11) if (ifzfile .ne. 0) close(12) call pgend() end cccccccccccccccccccc c funcs returns the values of the nv eigenvectors c evaluated at position xfit, in the array evals c if svdfit is called with argument wfit, xfit is the c log wavelength. c if svdfit is called with argument rifit, xfit is the c index in the log wavelength array, as a real. c subroutine funcs(xfit,evals,nv) include 'specarray.h' c having NMAXVECTS in here as well as fitz is a bad kludge parameter(NMAXVECTS=12) real evals(nv) common /vectorfit/ koffset,z,nvmax,nwlmax, $ evects(NMAXVECTS,NLOGWMAX) c find the index corresponding to the position xfit c and retrieve the eigenvector values c this is for use with rifit ispec = nint(xfit) jvect = ispec-koffset if(jvect .ge. 1 .and. jvect .le. nwlmax) then do i=1,nv evals(i) = evects(i,jvect) end do else do i=1,nv evals(i) = 0.0 end do end if return end cccccccccccccccccccccccccccccccccccccccc c Draw vertical lines for the actual z and z-estimates c on the chi-squared plots. subroutine plotz(zreal,zest1,zest2) real xpl(2),ypl(2) integer indexc,indexls ypl(1) = -100. ypl(2) = 1.0e10 call pgqci(indexc) call pgqls(indexls) c call pgsls(1) xpl(1) = zreal xpl(2) = zreal call pgsci(4) call pgsls(5) call pgline(2,xpl,ypl) xpl(1) = zest1 xpl(2) = zest1 call pgsci(3) call pgsls(4) call pgline(2,xpl,ypl) xpl(1) = zest2 xpl(2) = zest2 call pgsci(2) call pgsls(3) call pgline(2,xpl,ypl) call pgsci(indexc) call pgsls(indexls) return end	fitz.f
! ! Copyright 2018 SALMON developers ! ! Licensed under the Apache License, Version 2.0 (the "License"); ! you may not use this file except in compliance with the License. ! You may obtain a copy of the License at ! ! http://www.apache.org/licenses/LICENSE-2.0 ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. ! !----------------------------------------------------------------------------------------- subroutine eh_finalize(grid,tmp) use inputoutput, only: utime_from_au,ulength_from_au,uenergy_from_au,unit_system,iperiodic,& ae_shape1,ae_shape2,e_impulse,sysname,nt_em,nenergy,de, & directory,iobs_num_em,iobs_samp_em use salmon_parallel, only: nproc_id_global use salmon_communication, only: comm_is_root use salmon_maxwell, only:fdtd_grid,fdtd_tmp implicit none type(fdtd_grid) :: grid type(fdtd_tmp) :: tmp integer :: ii real(8),parameter :: pi=3.141592653589793d0 character(128) :: save_name !output linear response(matter dipole pm and current jm are outputted: pm = -dip and jm = -curr) if(ae_shape1=='impulse'.or.ae_shape2=='impulse') then if(iperiodic==0) then !output time-dependent dipole data if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_p.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# time[a.u.], dipoleMoment(x,y,z)[a.u.]" case('A_eV_fs') write(tmp%ifn,'(A)') "# time[fs], dipoleMoment(x,y,z)[Ang.]" end select do ii=1,nt_em write(tmp%ifn, '(E13.5)',advance="no") tmp%time_lr(ii)utime_from_au write(tmp%ifn, '(3E16.6e3)',advance="yes") -tmp%dip_lr(ii,:)ulength_from_au end do close(tmp%ifn) end if !output lr data call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%dip_lr(:,1),tmp%fr_lr(:,1),tmp%fi_lr(:,1)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%dip_lr(:,2),tmp%fr_lr(:,2),tmp%fi_lr(:,2)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%dip_lr(:,3),tmp%fr_lr(:,3),tmp%fi_lr(:,3)) if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_lr.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# energy[a.u.], Re[alpha](x,y,z)[a.u.], Im[alpha](x,y,z)[a.u.], df/dE(x,y,z)[a.u.]" case('A_eV_fs') write(tmp%ifn,'(A)') "# energy[eV], Re[alpha](x,y,z)[Ang.3], Im[alpha](x,y,z)[Ang.3], df/dE(x,y,z)[1/eV]" end select do ii=0,nenergy write(tmp%ifn, '(E13.5)',advance="no") dble(ii)deuenergy_from_au write(tmp%ifn, '(3E16.6e3)',advance="no") tmp%fr_lr(ii,:)/(-e_impulse)(ulength_from_au3.0d0) write(tmp%ifn, '(3E16.6e3)',advance="no") tmp%fi_lr(ii,:)/(-e_impulse)(ulength_from_au*3.0d0) write(tmp%ifn, '(3E16.6e3)',advance="yes") 2.0d0dble(ii)de/pitmp%fi_lr(ii,:)/(-e_impulse)/uenergy_from_au end do close(tmp%ifn) end if elseif(iperiodic==3) then !output time-dependent dipole data if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_current.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# time[a.u.], current(x,y,z)[a.u.]" case('A_eV_fs') write(tmp%ifn,'(A)') "# time[fs], current(x,y,z)[A/Ang.^2]" end select do ii=1,nt_em write(tmp%ifn, '(E13.5)',advance="no") tmp%time_lr(ii)utime_from_au write(tmp%ifn, '(3E16.6e3)',advance="yes") -tmp%curr_lr(ii,:)tmp%uAperm_from_au/ulength_from_au end do close(tmp%ifn) end if !output lr data call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%curr_lr(:,1),tmp%fr_lr(:,1),tmp%fi_lr(:,1)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%curr_lr(:,2),tmp%fr_lr(:,2),tmp%fi_lr(:,2)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%curr_lr(:,3),tmp%fr_lr(:,3),tmp%fi_lr(:,3)) if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_lr.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# energy[a.u.], Re[epsilon](x,y,z), Im[epsilon](x,y,z)" case('A_eV_fs') write(tmp%ifn,'(A)') "# energy[eV], Re[epsilon](x,y,z), Im[epsilon](x,y,z)" end select do ii=1,nenergy write(tmp%ifn, '(E13.5)',advance="no") dble(ii)deuenergy_from_au write(tmp%ifn, '(3E16.6e3)',advance="no") 1.0d0-4.0d0pitmp%fi_lr(ii,:)/(-e_impulse)/(dble(ii)de) write(tmp%ifn, '(3E16.6e3)',advance="yes") 4.0d0pitmp%fr_lr(ii,:)/(-e_impulse)/(dble(ii)de) end do end if end if end if !observation if(iobs_num_em>0) then if(comm_is_root(nproc_id_global)) then !make information file open(tmp%ifn,file=trim(directory)//"/obs0_info.data") write(tmp%ifn,'(A,A14)') 'unit_system =',trim(unit_system) write(tmp%ifn,'(A,I14)') 'iperiodic =',iperiodic write(tmp%ifn,'(A,ES14.5)') 'dt_em =',grid%dtutime_from_au write(tmp%ifn,'(A,I14)') 'nt_em =',(tmp%iter_end-tmp%iter_sta+1) write(tmp%ifn,'(A,ES14.5,A,ES14.5,A,ES14.5)') 'al_em =',& grid%rlsize(1)ulength_from_au,', ',& grid%rlsize(2)ulength_from_au,', ',& grid%rlsize(3)ulength_from_au write(tmp%ifn,'(A,ES14.5,A,ES14.5,A,ES14.5)') 'dl_em =',& grid%hgs(1)ulength_from_au,', ',& grid%hgs(2)ulength_from_au,', ',& grid%hgs(3)ulength_from_au write(tmp%ifn,'(A,I14,A,I14,A,I14)') 'lg_sta =',& grid%lg_sta(1),', ',grid%lg_sta(2),', ',grid%lg_sta(3) write(tmp%ifn,'(A,I14,A,I14,A,I14)') 'lg_end =',& grid%lg_end(1),', ',grid%lg_end(2),', ',grid%lg_end(3) write(tmp%ifn,'(A,I14)') 'iobs_num_em =',iobs_num_em write(tmp%ifn,'(A,I14)') 'iobs_samp_em =',iobs_samp_em write(tmp%ifn,'(A,ES14.5)') 'e_max =',tmp%e_max write(tmp%ifn,'(A,ES14.5)') 'h_max =',tmp%h_max close(tmp%ifn) end if end if !deallocate deallocate(tmp%ex_y,tmp%c1_ex_y,tmp%c2_ex_y,tmp%ex_z,tmp%c1_ex_z,tmp%c2_ex_z,& tmp%ey_z,tmp%c1_ey_z,tmp%c2_ey_z,tmp%ey_x,tmp%c1_ey_x,tmp%c2_ey_x,& tmp%ez_x,tmp%c1_ez_x,tmp%c2_ez_x,tmp%ez_y,tmp%c1_ez_y,tmp%c2_ez_y,& tmp%hx_y,tmp%c1_hx_y,tmp%c2_hx_y,tmp%hx_z,tmp%c1_hx_z,tmp%c2_hx_z,& tmp%hy_z,tmp%c1_hy_z,tmp%c2_hy_z,tmp%hy_x,tmp%c1_hy_x,tmp%c2_hy_x,& tmp%hz_x,tmp%c1_hz_x,tmp%c2_hz_x,tmp%hz_y,tmp%c1_hz_y,tmp%c2_hz_y) !write end if(comm_is_root(nproc_id_global)) then write(,) "-------------------------------------------------------" write(,) "************************" write(,) "FDTD end" write(,) "************************" end if end subroutine eh_finalize !========================================================================================= != Fourier transformation in eh ========================================================== subroutine eh_fourier(nt,ne,dt,de,ti,ft,fr,fi) use inputoutput, only: wf_em implicit none integer,intent(in) :: nt,ne real(8),intent(in) :: dt,de real(8),intent(in) :: ti(nt),ft(nt) real(8),intent(out) :: fr(0:ne),fi(0:ne) integer :: ie,it real(8) :: ft_wf(nt) real(8) :: hw complex(8),parameter :: zi=(0.d0,1.d0) complex(8) :: zf !apply window function if(wf_em=='y') then do it=1,nt ft_wf(it)=ft(it)( 1.0d0 -3.0d0(ti(it)/maxval(ti(:)))2.0d0 +2.0d0(ti(it)/maxval(ti(:)))*3.0d0 ) end do else ft_wf(:)=ft(:) end if !Fourier transformation do ie=0,ne hw=dble(ie)de; zf=(0.0d0,0.0d0); !$omp parallel !$omp do private(it) reduction( + : zf ) do it=1,nt zf=zf+exp(zihwti(it))ft_wf(it) end do !$omp end do !$omp end parallel zf=zfdt; fr(ie)=real(zf,8); fi(ie)=aimag(zf) end do end subroutine eh_fourier	src/maxwell/eh_finalize.f90
subroutine ed_gf_cluster_scalar(zeta,gf) complex(8) :: zeta complex(8),dimension(Nlat,Nlat,Nspin,Nspin,Norb,Norb),intent(inout) :: gf complex(8) :: green integer :: ispin integer :: ilat,jlat integer :: iorb,jorb integer :: iexc,Nexc integer :: ichan,Nchannel,istate,Nstates integer :: i,is,js complex(8) :: weight,de real(8) :: chan4 ! if(.not.allocated(impGmatrix))stop "ed_gf_cluster ERROR: impGmatrix not allocated!" ! if(ed_gf_symmetric)then chan4=0.d0 else chan4=1.d0 endif gf = zero ! do ilat=1,Nlat do jlat=1,Nlat do iorb=1,Norb do jorb=1,Norb do ispin=1,Nspin ! green = zero Nstates = size(impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state) do istate=1,Nstates Nchannel = size(impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel) do ichan=1,Nchannel Nexc = size(impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel(ichan)%poles) if(Nexc .ne. 0)then do iexc=1,Nexc weight = impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel(ichan)%weight(iexc) de = impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel(ichan)%poles(iexc) green = green + weight/(zeta-de) enddo endif enddo enddo gf(ilat,jlat,ispin,ispin,iorb,jorb) = green enddo enddo enddo enddo enddo do ispin=1,Nspin do iorb=1,Norb do jorb=1,Norb do ilat=1,Nlat do jlat=1,Nlat if(ilat==jlat .and. iorb==jorb)cycle gf(ilat,jlat,ispin,ispin,iorb,jorb) = 0.5d0(gf(ilat,jlat,ispin,ispin,iorb,jorb) & - (one-chan4xi)gf(ilat,ilat,ispin,ispin,iorb,iorb) - (one-chan4xi)*gf(jlat,jlat,ispin,ispin,jorb,jorb)) enddo enddo enddo enddo enddo ! end subroutine ed_gf_cluster_scalar subroutine ed_gf_cluster_array(zeta,gf) complex(8),dimension(:) :: zeta complex(8),dimension(Nlat,Nlat,Nspin,Nspin,Norb,Norb,size(zeta)),intent(inout) :: gf complex(8),dimension(Nlat,Nlat,Nspin,Nspin,Norb,Norb) :: green integer :: ispin integer :: ilat,jlat integer :: iorb,jorb integer :: iexc,Nexc integer :: ichan,Nchannel,istate,Nstates integer :: i,is,js real(8) :: weight,de ! if(.not.allocated(impGmatrix))stop "ed_gf_cluster ERROR: impGmatrix not allocated!" ! gf = zero do i=1,size(zeta) call ed_gf_cluster_scalar(zeta(i),green) gf(:,:,:,:,:,:,i) = green enddo ! end subroutine ed_gf_cluster_array	ED_IO/gf_cluster.f90
module model_initialiser contains ! remesher: ! Function based on the origianl REMESH function ! Input (in COMMON blocks): ! H(,) - array of independent variables (in unnamed COMMON) ! DH(,) - list of changes in independent variables (in unnamed COMMON) ! KH - current number of meshpoints in H(,) ! Input options: ! KH2 - new number of meshpoints for this model ! JCH - switch to determine whether to construct new mesh spacing function ! and initialise composition or not. ! BMS - Total mass in the binary (EV) ! TM - New mass of the star ! P1 - New rotational period of the star (solid body) ! ECC - New eccentricity of the binary ! OA - New orbital angular momentum ! JSTAR - Labels which if the stars to initislise variables for ! JF - Switch to decide which variables to recompute ! TODO: this could be split up into different subroutines for each of the ! individual tasks. subroutine remesher( kh2, jch, bms, tm, p1, ecc, oa, jstar, jf ) use real_kind use constants use mesh use init_dat use settings use control use atomic_data use test_variables use eostate_types use structure_functions use current_model_properties use structure_variables use accretion_abundances use indices implicit none integer, intent(in) :: kh2, jch, jstar, jf real(double), intent(in) :: bms, tm, p1, ecc, oa integer :: nm_current, nm_next, nm_target integer :: ik, ikk, ih, i integer :: jo integer :: ksv, kt5 type(init_dat_settings) :: initdat real(double) :: nh(nvar,nm), ndh(nvar,nm), nndh(nvar,nm) real(double) :: q1, q2, dk, dty, vd, dtb, ageb, pcrit, wcrit, w1 real(double) :: si, vma, hpc logical :: equilibrium logical :: newmesh real(double) :: var(nvar), dvar(nvar), fn1(nfunc) real(double) :: qa(NM) type(eostate) :: eos real(double) :: xh0, xhe0, xc0, xn0, xo0, xne0, xmg0, xsi0, xfe0 real(double) :: che real(double) :: xh, xhe, xc, xn, xo, xne, xmg, xsi, xfe real(double) :: r real(double) :: qq ! Determines mesh-point metric: mesh-point interval real(double) :: qm ! Determines mesh-point metric: derivative of mesh spacing function wrt mass real(double) :: phim ! Derivative of gravitational potential with respect to m*(2/3) real(double) :: gmr ! Effective gravity at the surface(?) real(double) :: m3 ! m^(1/3), m is the mass coordinate ! Backup current settings so we can restore them when we're done dtb = dt ageb = age call push_init_dat(initdat, kh2, ksv, kt5, jch) ! Change settings to a reasonable set of defaults call load_basic_init_dat(ik, ksv, kt5, ik) kop = initdat%kop kx = 0; ky = 0; kz = 0; kth = 0 cmi = 0.0 crd = 0.0d0 kt1 = 100 kt2 = 0 kt3 = 0 kt4 = 100 kt5 = 100 ksv = 100 joc = 1 jter = 0 ! Set initial composition. ! The composition variables are NOT the actual mass fractions if we ! use non-integer atomic masses, so we have to compute what they are ! The composition variables used in the code are baryon number fractions ! We calculate this even if we don't want to do a ZAMS run because we need to ! know the baryon number densities of Fe, Si and Mg. ! Note that the actual abundances of Si and Fe are forced to by non-zero. ! This is because the EoS becomes poorly defined if there are not enough free ! electrons. It has no impact on the opacity and only a small impact on the ! mean molecular weight and the mass loss rate. che = 1.0d0 - ch - czs cn = 1.0d0 - cc - co - cne - cmg - csi - cfe xh0 = chcbn(1)/can(1) xhe0 = checbn(2)/can(2) xc0 = ccczscbn(3)/can(3) xn0 = cnczscbn(4)/can(4) xo0 = coczscbn(5)/can(5) xne0 = cneczscbn(6)/can(6) xmg0 = cmgczscbn(7)/can(7) xsi0 = csiczscbn(8)/can(8) xfe0 = cfeczscbn(9)/can(9) xh = xh0 xhe = xhe0 xc = xc0 xn = xn0 xo = xo0 xne = xne0 xmg = xmg0 xsi = max(xsi0, csi1.0d-4) xfe = max(xfe0, cfe1.0d-4) vma = xh + xhe + xc + xn + xo + xne + xmg + xsi + xfe xh = xh / vma xhe = xhe / vma xc = xc / vma xn = xn / vma xo = xo / vma xne = xne / vma xfe = xfe / vma xsi = xsi / vma xmg = xmg / vma ! Initialise composition variables h(VAR_MG24, 1:kh) = xmg h(VAR_SI28, 1:kh) = xsi h(VAR_FE56, 1:kh) = xfe if ( jch >= 4 ) then h(VAR_H1,1:kh) = xh h(VAR_O16,1:kh) = xo h(VAR_HE4,1:kh) = xhe h(VAR_C12,1:kh) = xc h(VAR_NE20,1:kh) = xne h(VAR_N14,1:kh) = xn end if ! We should always do this for Mg24, since that's never stored if (use_mg24_eqn) then do ik=1, kh xmg = h(VAR_H1,ik) + h(VAR_HE4, ik) + h(VAR_C12, ik) + h(VAR_O16, ik) + h(VAR_NE20, ik) + h(VAR_N14, ik) + xfe + xsi h(VAR_MG24,ik) = max(0.0d0, 1.0 - xmg) end do end if ! Now we must also convert the abundances of the accreted material. If not ! set from init.dat, set from initial abundances. !> \todo FIXME: this will cause problems if we ever need to call REMESH twice in !! the same run !< x1ac = x1accbn(1)/can(1) x4ac = x4accbn(2)/can(2) x12ac = x12accbn(3)/can(3) x14ac = x14accbn(4)/can(4) x16ac = x16accbn(5)/can(5) x20ac = x20accbn(6)/can(6) x24ac = x24accbn(7)/can(7) if (x1ac < 0.0) x1ac = xh0 if (x4ac < 0.0) x4ac = xhe0 if (x12ac < 0.0) x12ac = xc0 if (x14ac < 0.0) x14ac = xn0 if (x16ac < 0.0) x16ac = xo0 if (x20ac < 0.0) x20ac = xne0 if (x24ac < 0.0) x24ac = xmg0 vma = x1ac + x4ac + x12ac + x14ac + x16ac + x20ac + x24ac + xfe + xsi x1ac = x1ac / vma x4ac = x4ac / vma x12ac = x12ac / vma x14ac = x14ac / vma x16ac = x16ac / vma x20ac = x20ac / vma x24ac = x24ac / vma ! make sure XH is 1-everything else and abundancies sum to 1 x1ac = max(0.0d0, 1.0d0-(x4ac+x12ac+x14ac+x16ac+x20ac+x24ac+xfe0+xsi0)) ! Initialise accretion abundances for both stars xac(1, 1:2) = x1ac xac(2, 1:2) = x4ac xac(3, 1:2) = x12ac xac(4, 1:2) = x14ac xac(5, 1:2) = x16ac xac(6, 1:2) = x20ac xac(7, 1:2) = x24ac ! Set initial values of some other variables ! Typical mass-scale for the interior (needed for mesh spacing function) mc(jstar) = tm ! New mass after remesh var(:) = h(:, kh) dvar(:) = 0.0d0 call funcs1 ( kh, -2, var(:), dvar(:), fn1(:), eos, px=sx(:,2)) hpc = sqrt(eos%p/(cg * eos%rho * eos%rho)) mc(jstar) = 3.5d-33 * eos%rho * hpc*3 ! Initialise binary (orbital) parameters h(VAR_HORB, 1:kh) = oa ! New orbital angular momentum h(VAR_ECC, 1:kh) = ecc ! New eccentricity h(VAR_BMASS, 1:kh) = bms ! New total binary mass ! First: change the number of meshpoints or the mesh spacing function ! Determine if we need to calculate a new mesh (independent of the number ! of meshpoints) newmesh = .false. if (jch>3) newmesh = .true. ! Set new number of meshpoints nm_current = kh nm_target = kh2 nm_next = nm_target print , 'nremesh from', nm_current, 'to', nm_target do while(newmesh .or. nm_current /= nm_next) newmesh = .false. print , 'trying ', nm_next ! Store old model, so we can go back if needed nh(:,1:nm_current) = h(:,1:nm_current) ndh(:,1:nm_current) = dh(:,1:nm_current) ! Find values of mesh spacing function do ik=1, nm_current var(:) = h(:, ik) call funcs1 ( ik, -2, var(:), dvar(:), fn1(:)) ! Calculate stuff qa(ik) = qq ! Store mesh spacing function end do ! Interpolate model onto new mesh ! Find values of mesh spacing function at the external points ! Needed to calculate the new mesh, where the meshspacing gradient is ! constant. q1 = qa(1) q2 = (nm_next - 1.0d0)/(qa(nm_current) - qa(1)) do ik = 1, nm_current qa(ik) = (qa(ik) - q1)q2 + 1.0d0 ! Adjust meshspacing end do ih = 1 do ik = 1, nm_next dk = 0.0d0 if ( ik == nm_next ) ih = nm_current if ( ik /= 1 .and. ik /= nm_next ) then ! Find the proper value for the meshspacing function at ! this meshpoint do i = 1, 50 ! Sanity check: abort if we're running out of the mesh ! boundary if ( ih+1 > nm_current) then write (0, ) & 'remesh running outside mesh boundary, aborting' stop end if if ( ik >= qa(ih + 1) ) ih = ih + 1 if ( ik < qa(ih + 1) ) exit ! Break loop end do dk = (ik - qa(ih))/(qa(ih + 1) - qa(ih)) end if ! Linear interpolation for new H and DH h(:, ik) = nh(:, ih) + dk(nh(:, ih + 1) - nh(:, ih)) nndh(:, ik) = ndh(:, ih) + dk(ndh(:, ih + 1) - ndh(:, ih)) end do !H(6, 1:KH) = 1.0/Q2 ! Gradient of mesh spacing ! Now see if the model will converge properly if we let the code iterate dty = dt/csy jo = 0 jnn = 0 kh = nm_next call printb ( jo, 1, 22 ) age = age - dty call nextdt ( dty, jo, 22 ) jnn = 1 dh(:, 1:nm_next) = 0.0d0 call solver(20, id, kt5, jo) if (jo == 0) then print , 'converged ok' ! If yes, pick next number of meshpoints nm_current = nm_next nm_next = nm_target h(:,1:nm_current) = h(:,1:nm_current) + dh(:,1:nm_current) else ! If no, pick a smaller number of meshpoints in between the current value ! and the target and try again. nm_next = (nm_current+nm_next)/2 print , 'cannot converge, reduce to ', nm_next ! Restore backup copies of H and DH h(:,1:nm_current) = nh(:,1:nm_current) dh(:,1:nm_current) = ndh(:,1:nm_current) end if end do print , 'nremesh finished with ', nm_current, '(wanted ', nm_target,')' if (nm_current < nm_target) then print , ' nremesh failed ' stop end if dh(:, 1:nm_current) = nndh(:,1:nm_current) dh(:, 1:nm_current) = 0.0 kh = nm_current ! Second: scale the mass vd = tm/h(VAR_MASS, 1) vd = 1.0 print , 'scaling mass by factor', vd do while (abs(1.0d0 - vd) > 0.1) vd = max(0.9d0,min(vd, 1.1d0)) h(VAR_MASS, 1:kh) = vdh(VAR_MASS, 1:kh) ! Scale mass kth = 1 jhold = 4 equilibrium = equilibrate_model(kt5) if (.not. equilibrium) then !H(:,1:nm_current) = NH(:,1:nm_current) print , '* failed ' stop end if vd = tm/h(VAR_MASS, 1) end do h(VAR_MASS, 1:kh) = vdh(VAR_MASS, 1:kh) ! Scale mass ! Third: scale the surface rotation rate ! Make the whole star rotate with the surface rate, if desired ! Convert rotational period -> rotation rate forall (ik=1:kh) h(VAR_OMEGA, ik) = 2.0cpi/(h(VAR_OMEGA, ik) csday) if (start_with_rigid_rotation) h(VAR_OMEGA,2:kh) = h(VAR_OMEGA,1) ! Now scale the surface rate, similar to the way the mass is scaled ! If we forced the star to rigid rotation before then this will set the ! rotation profile throughout the entire star wcrit = sqrt(cgtm/exp(3h(VAR_LNR, 1))) pcrit = 2.0cpi/wcrit/csday w1 = 2.0cpi/p1/csday print , 'scaling rotation rate by factor', w1/h(13, 1) ! For rotation rates within 1/4 of critical be a bit more careful. Here we ! need to approach the desired rate smoothly, adjusting the structure of ! the star at each step. !> \todo FIXME: This should be more akin to the bit that updates the code on the !! new mesh, ie, not necessarily bring the star into equilibrium. !< if (wcrit/w1 < 4.0) then call set_solid_rotation print , 'Period', p1, 'close to critical rate', pcrit vd = 0.25wcrit/h(VAR_OMEGA,1) h(VAR_OMEGA, 1:kh) = vdh(VAR_OMEGA, 1:kh) ! Scale rotation rate kth = 1 equilibrium = converge_model(kt5) do while (equilibrium .and. abs(w1 - h(VAR_OMEGA,1)) > 1.0d-6) vd = max(0.9d0,min(vd, 1.1d0)) h(VAR_OMEGA, 1:kh) = vdh(VAR_OMEGA, 1:kh) jhold = 4 equilibrium = converge_model(kt5) vd = w1/h(VAR_OMEGA, 1) if (.not. equilibrium) then print , '* failed ' stop end if end do end if vd = w1/h(VAR_OMEGA, 1) h(VAR_OMEGA, 1:kh) = vdh(VAR_OMEGA, 1:kh) ! Scale rotational period ! Compute moment of inertia and surface potential if (jf /= 2) then q2 = h(VAR_QK,1) h(VAR_QK, 1:kh) = 1.0d0 h(VAR_INERT, 1:kh) = 1.0d0 ! Moment of Inertia h(VAR_PHI, 1:kh) = 0.0d0 ! Gravitational potential do ik = 2, kh ikk = kh + 2 - ik var(:) = h(:, ik) call funcs1 ( ik, -2, var(:), dvar(:), fn1(:), px=sx(:,ikk)) qq = sx(85, ikk) qm = sx(86, ikk) phim = sx(87, ikk) m3 = sx(89, ikk) r = sqrt(abs(exp(2.0d0var(7)) - ct(8))) h(VAR_INERT, ik) = h(VAR_INERT, ik - 1) + rrm3/(abs(qm)) h(VAR_PHI, ik) = h(VAR_PHI, ik - 1) + phim/abs(qm) end do gmr = sx(88, kh+1) h(VAR_QK, 1:kh) = q2 h(VAR_PHIS, 1:kh) = - gmr ! Potential at the stellar surface si = h(VAR_INERT, kh) ! Total moment of inertia do ik = 1, kh h(VAR_INERT, ik) = (si - h(VAR_INERT, ik))abs(q2) ! Moment of inertia of interior h(VAR_PHI, ik) = - gmr - h(VAR_PHI, ik)abs(q2) ! Gravitational potential end do end if ! Total angular momentum integration h(VAR_TAM, 1:kh) = h(VAR_INERT, 1:kh)h(VAR_OMEGA, 1) if (relax_loaded_model) then kth = 1 jhold = 4 print , 'equilibrating...' equilibrium = equilibrate_model(kt5) if (.not. equilibrium) then print , '* failed ' stop end if print , 'done' dh(:, 1:kh) = 0.0 end if ! Restore old init.dat call pop_init_dat(initdat, ik, ksv, kt5, ik) dt = dtb age = ageb print *, 'Remesh done' end subroutine remesher function converge_model(kt5) use real_kind use mesh use constants use test_variables implicit none logical :: converge_model integer, intent(in) :: kt5 real(double) :: dty integer :: jo jo = 0 dty = dt/csy call solver(20, id, kt5, jo) if (jo == 0) then age = 0.0d0 call printb ( jo, 1, 22 ) h(:,1:kh) = h(:,1:kh) + dh(:,1:kh) call nextdt ( dty, jo, 22 ) end if converge_model = (jo == 0) end function converge_model function equilibrate_model(kt5) use real_kind use mesh use constants use test_variables implicit none logical :: equilibrate_model integer, intent(in) :: kt5 real(double) :: dty integer :: i, jo jo = 0 do i=1, 40 dty = dt/csy call solver(20, id, kt5, jo) if (jo /= 0) exit age = 0.0d0 call printb ( jo, 1, 22 ) h(:,1:kh) = h(:,1:kh) + dh(:,1:kh) call nextdt ( dty, jo, 22 ) if (abs(lth) < 1.0d-8 .or. lth < 0.0d0) exit end do equilibrate_model = .false. if (lth < 1.0d-6 .and. jo == 0) equilibrate_model = .true. end function equilibrate_model end module model_initialiser	src/amuse/community/evtwin/src/trunk/code/nremesh.f90
SUBROUTINE MF_LGTORI & (xintg,r,drdc,nderiv) implicit complex (a-h,o-z) real omega,wavenr, & rmax,xmgsq,cthrsh,cmgsq,delta(4) common/mf_flag/iexact,iovflo,kexact,lowg,nodivd,noevct, & nofinl,nointg,nomesh,notlin & /mf_lgfl/lgflag(4) & /mf_mode/theta,c,s,csq,ssq,omega,wavenr,ideriv & /mf_rmtx/x(4),dxdc(4),dxdh(4),dhdxdc(4) dimension xintg(8),r(4),drdc(4) data delta/1.0,0.0,0.0,1.0/,cthrsh/0.03/,rmax/50.0/ cmgsq=REAL(c)2+AIMAG(c)2 do i=1,4 if (lgflag(i) .eq. 0) then xmgsq=REAL(xintg(i))2+AIMAG(xintg(i))2 if ((xmgsq .gt. rmax2 .and. cmgsq .ge. cthrsh2) & .or. & (xmgsq .gt. 1.e3rmax2 .and. cmgsq .lt. cthrsh2)) & then iovflo=1 RETURN end if x(i)=xintg(i) if (nderiv .eq. 1) dxdc(i)=xintg(i+4) else if (ABS(REAL(xintg(i))) .gt. 10.) then iovflo=1 RETURN end if r(i)=EXP(xintg(i)) x(i)=(r(i)+delta(i))/c if (nderiv .eq. 1) then dlnrdc=xintg(i+4) drdc(i)=r(i)dlnrdc dxdc(i)=(drdc(i)-x(i))/c end if end if end do RETURN END ! MF_LGTORI	LWPCv21/lib/mf_lgtori.for
C$Procedure ZZRYTPDT ( DSK, ray touches planetodetic element ) SUBROUTINE ZZRYTPDT ( VERTEX, RAYDIR, BOUNDS, . CORPAR, MARGIN, NXPTS, XPT ) C$ Abstract C C SPICE Private routine intended solely for the support of SPICE C routines. Users should not call this routine directly due to the C volatile nature of this routine. C C Find nearest intersection to a given ray's vertex of the ray and C a planetodetic volume element. If the vertex is inside the C element, the vertex is considered to be the solution. C C In the computation performed by this routine, ellipsoidal C surfaces are used, instead of surfaces of constant altitude, to C define boundaries of planetodetic volume elements. The element C defined by the input boundaries is contained in the element C bounded by the input latitude and longitude boundaries and by the C ellipsoidal surfaces. C C$ Disclaimer C C THIS SOFTWARE AND ANY RELATED MATERIALS WERE CREATED BY THE C CALIFORNIA INSTITUTE OF TECHNOLOGY (CALTECH) UNDER A U.S. C GOVERNMENT CONTRACT WITH THE NATIONAL AERONAUTICS AND SPACE C ADMINISTRATION (NASA). THE SOFTWARE IS TECHNOLOGY AND SOFTWARE C PUBLICLY AVAILABLE UNDER U.S. EXPORT LAWS AND IS PROVIDED "AS-IS" C TO THE RECIPIENT WITHOUT WARRANTY OF ANY KIND, INCLUDING ANY C WARRANTIES OF PERFORMANCE OR MERCHANTABILITY OR FITNESS FOR A C PARTICULAR USE OR PURPOSE (AS SET FORTH IN UNITED STATES UCC C SECTIONS 2312-2313) OR FOR ANY PURPOSE WHATSOEVER, FOR THE C SOFTWARE AND RELATED MATERIALS, HOWEVER USED. C C IN NO EVENT SHALL CALTECH, ITS JET PROPULSION LABORATORY, OR NASA C BE LIABLE FOR ANY DAMAGES AND/OR COSTS, INCLUDING, BUT NOT C LIMITED TO, INCIDENTAL OR CONSEQUENTIAL DAMAGES OF ANY KIND, C INCLUDING ECONOMIC DAMAGE OR INJURY TO PROPERTY AND LOST PROFITS, C REGARDLESS OF WHETHER CALTECH, JPL, OR NASA BE ADVISED, HAVE C REASON TO KNOW, OR, IN FACT, SHALL KNOW OF THE POSSIBILITY. C C RECIPIENT BEARS ALL RISK RELATING TO QUALITY AND PERFORMANCE OF C THE SOFTWARE AND ANY RELATED MATERIALS, AND AGREES TO INDEMNIFY C CALTECH AND NASA FOR ALL THIRD-PARTY CLAIMS RESULTING FROM THE C ACTIONS OF RECIPIENT IN THE USE OF THE SOFTWARE. C C$ Required_Reading C C DSK C C$ Keywords C C GEOMETRY C INTERCEPT C INTERSECTION C RAY C SURFACE C TOPOGRAPHY C C$ Declarations IMPLICIT NONE INCLUDE 'dsktol.inc' DOUBLE PRECISION VERTEX ( 3 ) DOUBLE PRECISION RAYDIR ( 3 ) DOUBLE PRECISION BOUNDS ( 2, 3 ) DOUBLE PRECISION CORPAR ( * ) DOUBLE PRECISION MARGIN INTEGER NXPTS DOUBLE PRECISION XPT ( 3 ) INTEGER LONIDX PARAMETER ( LONIDX = 1 ) INTEGER LATIDX PARAMETER ( LATIDX = 2 ) INTEGER ALTIDX PARAMETER ( ALTIDX = 3 ) C$ Brief_I/O C C VARIABLE I/O DESCRIPTION C -------- --- -------------------------------------------------- C VERTEX I Ray's vertex. C RAYDIR I Ray's direction vector. C BOUNDS I Bounds of planetodetic volume element. C CORPAR I Coordinate parameters. C MARGIN I Margin used for element expansion. C NXPTS O Number of intercept points. C XPT O Intercept. C LONIDX P Longitude index. C LATIDX P Latitude index. C ALTIDX P Altitude index. C C$ Detailed_Input C C VERTEX, C RAYDIR are, respectively, the vertex and direction vector of C the ray to be used in the intercept computation. C C Both the vertex and ray direction must be represented C in the reference frame to which the planetodetic C volume element boundaries correspond. The vertex is C considered to be an offset from the center of the C reference frame associated with the element. C C BOUNDS is a 2x3 array containing the bounds of a planetodetic C volume element. Normally this is the coverage boundary C of a DSK segment. In the element C C BOUNDS(I,J) C C J is the coordinate index. J is one of C C { LONIDX, LATIDX, ALTIDX } C C I is the bound index. C C I = 1 -> lower bound C I = 2 -> upper bound C C If the longitude upper bound is not greater than the C longitude lower bound, a value greater than the upper C bound by 2pi is used for the comparison. C C RE, C F are, respectively, the equatorial radius and C flattening coefficient associated with the C planetodetic coordinate system in which the input C volume element is described. C C C MARGIN is a scale factor used to effectively expand the C segment boundaries so as to include intersections C that lie slightly outside the volume element. C C C$ Detailed_Output C C XPT is the intercept of the ray on the surface described C by the segment, if such an intercept exists. If the C ray intersects the surface at multiple points, the C one closest to the ray's vertex is selected. XPT is C valid if and only if FOUND is .TRUE. C C XPT is expressed in the reference frame associated C with the inputs VERTEX and RAYDIR. XPT represents C an offset from the origin of the coordinate system. C C XPT is valid only if NXPTS is set to 1. C C C NXPTS is the number of intercept points of the ray and C the volume element. C C Currently there are only two possible values for C NXPTS: C C 1 for an intersection C 0 for no intersection C C If the vertex is inside the element, NXPTS is C set to 1. C C$ Parameters C C LONIDX is the index of longitude in the second dimension of C BOUNDS. C C LATIDX is the index of latitude in the second dimension of C BOUNDS. C C ALTIDX is the index of altitude in the second dimension of C BOUNDS. C$ Exceptions C C 1) If MARGIN is negative, the error SPICE(VALUEOUTOFRANGE) C is signaled. C C 2) If the input ray direction vector is zero, the error C SPICE(ZEROVECTOR) will be signaled. C C 3) Any errors that occur while calculating the ray-surface C intercept will be signaled by routines in the call tree C of this routine. C C$ Files C C None. However, the input segment boundaries normally have C been obtained from a loaded DSK file. C C$ Particulars C C This routine sits on top of data DSK type-specific ray-segment C intercept routines such as DSKX02. C C$ Examples C C See usage in ZZDSKBUX. C C$ Restrictions C C This is a private routine. It is meant to be used only by the DSK C subsystem. C C$ Literature_References C C None. C C$ Author_and_Institution C C N.J. Bachman (JPL) C C$ Version C C- SPICELIB Version 1.0.0, 19-JAN-2017 (NJB) C C-& C$ Index_Entries C C find intercept of ray on planetodetic volume element C C-& C C SPICELIB functions C DOUBLE PRECISION DPMAX DOUBLE PRECISION HALFPI DOUBLE PRECISION VDIST DOUBLE PRECISION VDOT DOUBLE PRECISION VNORM DOUBLE PRECISION VSEP LOGICAL FAILED LOGICAL RETURN LOGICAL VZERO LOGICAL ZZPDPLTC C C Local parameters C C C Altitude expansion factor: C DOUBLE PRECISION RADFAC PARAMETER ( RADFAC = 1.1D0 ) C C Element boundary indices: C INTEGER WEST PARAMETER ( WEST = 1 ) INTEGER EAST PARAMETER ( EAST = 2 ) INTEGER SOUTH PARAMETER ( SOUTH = 1 ) INTEGER NORTH PARAMETER ( NORTH = 2 ) INTEGER LOWER PARAMETER ( LOWER = 1 ) INTEGER UPPER PARAMETER ( UPPER = 2 ) INTEGER NONE PARAMETER ( NONE = 0 ) C C Local variables C DOUBLE PRECISION AMNALT DOUBLE PRECISION AMXALT DOUBLE PRECISION ANGLE DOUBLE PRECISION APEX ( 3 ) DOUBLE PRECISION DIST DOUBLE PRECISION EASTB ( 3 ) DOUBLE PRECISION EBACK ( 3 ) DOUBLE PRECISION EMAX DOUBLE PRECISION EMIN DOUBLE PRECISION ENDPT2 ( 3 ) DOUBLE PRECISION F DOUBLE PRECISION LONCOV DOUBLE PRECISION MAXALT DOUBLE PRECISION MAXLAT DOUBLE PRECISION MAXLON DOUBLE PRECISION MAXR DOUBLE PRECISION MINALT DOUBLE PRECISION MINLAT DOUBLE PRECISION MINLON DOUBLE PRECISION MNDIST DOUBLE PRECISION NEGDIR ( 3 ) DOUBLE PRECISION PMAX DOUBLE PRECISION PMIN DOUBLE PRECISION RE DOUBLE PRECISION RP DOUBLE PRECISION S DOUBLE PRECISION SRFX ( 3 ) DOUBLE PRECISION UDIR ( 3 ) DOUBLE PRECISION VTXANG DOUBLE PRECISION VTXLVL DOUBLE PRECISION VTXOFF ( 3 ) DOUBLE PRECISION WBACK ( 3 ) DOUBLE PRECISION WESTB ( 3 ) DOUBLE PRECISION XPT2 ( 3 ) DOUBLE PRECISION XINCPT DOUBLE PRECISION YINCPT DOUBLE PRECISION Z ( 3 ) INTEGER NX LOGICAL FOUND LOGICAL INSIDE LOGICAL XIN LOGICAL XVAL1 LOGICAL XVAL2 C C Saved variables C SAVE Z C C Initial values C DATA Z / 0.D0, 0.D0, 1.D0 / IF ( RETURN() ) THEN RETURN END IF CALL CHKIN ( 'ZZRYTPDT' ) IF ( MARGIN .LT. 0.D0 ) THEN CALL SETMSG ( 'Margin must be non-negative but was #.' ) CALL ERRDP ( '#', MARGIN ) CALL SIGERR ( 'SPICE(VALUEOUTOFRANGE)' ) CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( VZERO(RAYDIR) ) THEN CALL SETMSG ( 'The ray''s direction was the zero vector.' ) CALL SIGERR ( 'SPICE(ZEROVECTOR)' ) CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Determine whether the vertex is inside the element. C CALL ZZINPDT ( VERTEX, BOUNDS, CORPAR, MARGIN, NONE, INSIDE ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( INSIDE ) THEN C C We know the answer. C NXPTS = 1 CALL VEQU ( VERTEX, XPT ) CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Get semi-axis lengths of the reference spheroid. C RE = CORPAR(1) F = CORPAR(2) RP = RE ( 1.D0 - F ) C C Extract the segment's coordinate bounds into easily C readable variables. C MINALT = BOUNDS( LOWER, ALTIDX ) MAXALT = BOUNDS( UPPER, ALTIDX ) C C Normalize the longitude bounds. After this step, the bounds will C be in order and differ by no more than 2pi. C CALL ZZNRMLON( BOUNDS(WEST,LONIDX), BOUNDS(EAST,LONIDX), ANGMRG, . MINLON, MAXLON ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF MINLAT = BOUNDS( SOUTH, LATIDX ) MAXLAT = BOUNDS( NORTH, LATIDX ) C C Compute adjusted altitude bounds, taking margin into C account. C AMNALT = MINALT - MARGIN ABS(MINALT) AMXALT = MAXALT + MARGIN * ABS(MAXALT) C C Generate semi-axis lengths of inner and outer bounding C ellipsoids. C IF ( RE .GE. RP ) THEN C C The reference spheroid is oblate. C CALL ZZELLBDS ( RE, RP, AMXALT, AMNALT, . EMAX, PMAX, EMIN, PMIN ) ELSE C C The reference spheroid is prolate. C CALL ZZELLBDS ( RP, RE, AMXALT, AMNALT, . PMAX, EMAX, PMIN, EMIN ) END IF IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C The vertex is outside the element. C C Indicate no intersection to start. C NXPTS = 0 C C We'll use a unit length copy of the ray's direction vector. C CALL VHAT ( RAYDIR, UDIR ) C C Initialize the distance to the closest solution. We'll keep track C of this quantity in order to compare competing solutions. C MNDIST = DPMAX() C C Find the intersection of the ray and outer bounding ellipsoid, if C possible. Often this intersection is the closest to the vertex. C If the intersection exists and is on the boundary of the element, C it's a winner. C CALL SURFPT ( VERTEX, UDIR, EMAX, EMAX, PMAX, SRFX, FOUND ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( .NOT. FOUND ) THEN C C There are no intersections. The ray cannot hit the volume C element. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C The ray hits the outer bounding ellipsoid. See whether C the longitude and latitude are within bounds, taking C the margin into account. Exclude the altitude coordinate C from testing. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, ALTIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C This solution is a candidate. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 C C Find the level surface parameter of the vertex relative C to the adjusted outer bounding ellipsoid. C VTXLVL = ( VERTEX(1)/EMAX )2 . + ( VERTEX(2)/EMAX )2 . + ( VERTEX(3)/PMAX )*2 IF ( VTXLVL .GT. 1.D0 ) THEN C C The vertex is outside this ellipsoid, and the DSK segment C lies within the ellipsoid. C C No other intersection can be closer to the vertex; C we don't need to check the other surfaces. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN ELSE C C We have a possible solution. C MNDIST = VDIST( VERTEX, XPT ) END IF END IF C C So far there may be a candidate solution. We'll try the latitude C boundaries next. C C For testing intersections with the latitude boundaries, we'll C need a far endpoint for the line segment on which to perform the C test. C MAXR = MAX ( EMAX, PMAX ) S = VNORM(VERTEX) + RADFAC MAXR CALL VLCOM ( 1.D0, VERTEX, S, UDIR, ENDPT2 ) C C Now try the upper latitude bound. We can skip this test C if the upper bound is pi/2 radians. C IF ( MAXLAT .LT. HALFPI() ) THEN C C Let ANGLE be the angular separation of the surface of latitude C MAXLAT and the +Z axis. Note that the surface might be the C lower nappe of the cone. C ANGLE = MAX ( 0.D0, HALFPI() - MAXLAT ) C C Compute the Z coordinate of the apex of the latitude cone. C CALL ZZELNAXX ( RE, RP, MAXLAT, XINCPT, YINCPT ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF APEX(1) = 0.D0 APEX(2) = 0.D0 APEX(3) = YINCPT C C Find the offset of the ray's vertex from the cone's apex, C and find the angular separation of the offset from the +Z C axis. This separation enables us to compare the latitude of C the vertex to the latitude boundary without making a RECGEO C call to compute the planetodetic coordinates of the vertex. C C (The comparison will be done later.) C CALL VSUB ( VERTEX, APEX, VTXOFF ) VTXANG = VSEP ( VTXOFF, Z ) C C Check for intersection of the ray with the latitude cone. C CALL INCNSG ( APEX, Z, ANGLE, VERTEX, ENDPT2, NX, SRFX, XPT2 ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Unlike the case of latitudinal coordinates, for planetodetic C coordinates, the surface of the latitude cone does not C coincide with the set of points having that latitude (which is C equal to pi/2 - the cone's angular separation from the +Z C axis). The subset of the cone having the specified latitude is C truncated by the X-Y plane. If we ignore round-off errors, we C can assert that the Z-coordinate of a point having the given C planetodetic latitude must match the direction of the nappe of C the cone: positive if ANGLE < pi/2, negative if ANGLE > pi/2, C and 0 if ANGLE = pi/2. C C However, we cannot ignore round-off errors. For a cone having C angle from its central axis of nearly pi/2, it's possible for C a valid ray-cone intercept to be on the "wrong" side of the C X-Y plane due to round-off errors. So we use a more robust C check to determine whether an intercept should be considered C to have the same latitude as the cone. C C Check all intercepts. C IF ( NX .GT. 0 ) THEN C C Check the first intercept. C XVAL1 = ZZPDPLTC( RE, F, SRFX, MAXLAT ) XVAL2 = .FALSE. IF ( NX .EQ. 2 ) THEN C C Check the second intercept. C XVAL2 = ZZPDPLTC( RE, F, XPT2, MAXLAT ) END IF IF ( XVAL1 .AND. ( .NOT. XVAL2 ) ) THEN NX = 1 ELSE IF ( XVAL2 .AND. (.NOT. XVAL1 ) ) THEN C C Only the second solution is valid. Overwrite C the first. C NX = 1 CALL VEQU( XPT2, SRFX ) ELSE IF ( ( .NOT. XVAL1 ) .AND. ( .NOT. XVAL2 ) ) THEN C C Neither solution is valid. C NX = 0 END IF END IF IF ( NX .GE. 1 ) THEN C C The ray intercept SRFX lies on the upper latitude boundary. C C See whether SRFX meets the longitude and proxy altitude C constraints. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C SRFX is a candidate solution. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( SRFX, XPT ) NXPTS = 1 IF ( VTXANG .LT. ANGLE ) THEN IF ( ( MAXLAT .LT. 0.D0 ) . .OR. ( VERTEX(3) .GT. 0.D0 ) ) THEN C C If MAXLAT is negative, the vertex offset C being outside the cone is enough to C guarantee the planetodetic latitude of the C vertex is greater than that of the cone. C C If MAXLAT is non-negative, the angle of the C vertex offset relative to the +Z axis is not C enough; we need the vertex to lie above the C X-Y plane as well. C C Getting here means one of these conditions C was met. C C Since the latitude of the vertex is greater C than MAXLAT, this is the best solution, since C the volume element is on the other side of the C maximum latitude boundary. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF END IF C C This is the best solution seen so far, but we C need to check the remaining boundaries. C MNDIST = DIST END IF END IF IF ( NX .EQ. 2 ) THEN C C Check the second solution as well. C CALL ZZINPDT ( XPT2, BOUNDS, CORPAR, . MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C XPT2 is a candidate solution. C DIST = VDIST( VERTEX, XPT2 ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( XPT2, XPT ) NXPTS = 1 MNDIST = DIST C C This is the best solution seen so far. C However, it's not necessarily the best C solution. So we continue. C END IF END IF END IF C C We've handled the second root, if any. C END IF C C We're done with the upper latitude boundary. C END IF C C Try the lower latitude bound. We can skip this test if the lower C bound is -pi/2 radians. C IF ( MINLAT .GT. -HALFPI() ) THEN C C Let ANGLE be the angular separation of the surface C of latitude MINLAT and the +Z axis. Note that the C surface might be the lower nappe of the cone. C ANGLE = HALFPI() - MINLAT C Compute the Z coordinate of the apex of the latitude cone. C CALL ZZELNAXX ( RE, RP, MINLAT, XINCPT, YINCPT ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF APEX(1) = 0.D0 APEX(2) = 0.D0 APEX(3) = YINCPT CALL INCNSG ( APEX, Z, ANGLE, VERTEX, . ENDPT2, NX, SRFX, XPT2 ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Find the offset of the ray's vertex from the cone's apex, C and find the angular separation of the offset from the +Z C axis. This separation enables us to compare the latitude of C the vertex to the latitude boundary without making a RECGEO C call to compute the planetodetic coordinates of the vertex. C C (The comparison will be done later.) C CALL VSUB ( VERTEX, APEX, VTXOFF ) VTXANG = VSEP ( VTXOFF, Z ) C C Check whether the latitude of the intercept can be C considered to match that of the cone. C IF ( NX .GT. 0 ) THEN C C Check the first intercept. C XVAL1 = ZZPDPLTC( RE, F, SRFX, MINLAT ) XVAL2 = .FALSE. IF ( NX .EQ. 2 ) THEN C C Check the second intercept. C XVAL2 = ZZPDPLTC( RE, F, XPT2, MINLAT ) END IF IF ( XVAL1 .AND. ( .NOT. XVAL2 ) ) THEN NX = 1 ELSE IF ( XVAL2 .AND. (.NOT. XVAL1 ) ) THEN C C Only the second solution is valid. Overwrite C the first. C NX = 1 CALL VEQU( XPT2, SRFX ) ELSE IF ( ( .NOT. XVAL1 ) .AND. ( .NOT. XVAL2 ) ) THEN C C Neither solution is valid. C NX = 0 END IF END IF IF ( NX .GE. 1 ) THEN C C The ray intercept SRFX lies on the lower latitude boundary. C C See whether SRFX meets the longitude and proxy altitude C constraints. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C SRFX is a candidate solution. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( SRFX, XPT ) NXPTS = 1 IF ( VTXANG .GT. ANGLE ) THEN IF ( ( MINLAT .GT. 0.D0 ) . .OR. ( VERTEX(3) .LT. 0.D0 ) ) THEN C C If MINLAT is positive, the vertex offset C being outside the cone is enough to C guarantee the planetodetic latitude of the C vertex is less than that of the cone. C C If MINLAT is non-positive, the angle of the C vertex offset relative to the +Z axis is not C enough; we need the vertex to lie below the C X-Y plane as well. C C Getting here means one of these conditions C was met. C C Since the latitude of the vertex is less than C than MINLAT, this is the best solution, since C the volume element is on the other side of the C minimum latitude boundary. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF END IF C C This is the best solution seen so far, but we C need to check the remaining boundaries. MNDIST = DIST END IF END IF IF ( NX .EQ. 2 ) THEN C C Check the second solution as well. C CALL ZZINPDT ( XPT2, BOUNDS, CORPAR, . MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C XPT2 is a candidate solution. C DIST = VDIST( VERTEX, XPT2 ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( XPT2, XPT ) NXPTS = 1 MNDIST = DIST C C This is the best solution seen so far. C However, it's not necessarily the best C solution. So we continue. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF END IF END IF END IF C C We're done with the lower latitude boundary. C END IF C C Perform longitude boundary checks if the coverage is not C 2pi radians. Note that MAXLON > MINLON at this point. C LONCOV = MAXLON - MINLON IF ( COS(LONCOV) .LT. 1.D0 ) THEN C C We have distinct longitude boundaries. Go to work. C C C Check the longitude boundaries. Try the plane of western C longitude first. C CALL VPACK ( SIN(MINLON), -COS(MINLON), 0.D0, WESTB ) S = RADFAC ( VNORM(VERTEX) + MAXR ) CALL ZZINRYPL ( VERTEX, UDIR, WESTB, 0.D0, S, NX, SRFX ) IF ( NX .EQ. 1 ) THEN C C We have one point of intersection. Determine whether it's a C candidate solution. Don't use longitude in the following C inclusion test. Note that we'll perform a separate check C later in place of the longitude check. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LONIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C Make sure the intercept is not too far on the C "wrong" side of the Z axis. C CALL UCRSS ( WESTB, Z, WBACK ) IF ( VDOT(SRFX, WBACK) .LT. (MARGINMAXR) ) THEN C C The intercept is either on the same side of the Z C axis as the west face of the segment, or is very C close to the Z axis. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 MNDIST = DIST END IF END IF END IF END IF C C We're done with the western boundary. C C C Try the plane of eastern longitude next. C CALL VPACK ( -SIN(MAXLON), COS(MAXLON), 0.D0, EASTB ) CALL ZZINRYPL ( VERTEX, UDIR, EASTB, 0.D0, S, NX, SRFX ) IF ( NX .EQ. 1 ) THEN C C We have one point of intersection. Determine whether it's a C candidate solution. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LONIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C Make sure the intercept is not too far on the "wrong" C side of the Z axis. C CALL UCRSS ( Z, EASTB, EBACK ) IF ( VDOT(SRFX, EBACK) .LT. (MARGINMAXR) ) THEN C C The intercept is either on the same side of the Z C axis as the east face of the segment, or is very C close to the Z axis. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 MNDIST = DIST END IF END IF END IF END IF END IF C C End of longitude boundary checks. C C C Find the intersection of the ray and lower bounding C ellipsoid, if possible. C CALL SURFPT ( VERTEX, UDIR, EMIN, EMIN, PMIN, SRFX, FOUND ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( FOUND ) THEN C C See whether this solution is in the element. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, ALTIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 MNDIST = DIST END IF END IF END IF C C Unlike the outer ellipsoid, either intersection of the ray with C the inner ellipsoid might be a valid solution. We'll test for the C case where the intersection farther from the ray's vertex is the C correct one. C CALL VMINUS( UDIR, NEGDIR ) CALL SURFPT ( ENDPT2, NEGDIR, EMIN, EMIN, PMIN, SRFX, FOUND ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( FOUND ) THEN CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, ALTIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 C C There's no need to update MNDIST at this point. C END IF END IF END IF C C NXPTS and XPT are set. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END	source/nasa_f/zzrytpdt.f
SUBROUTINE TG_VI2F ( vdtm, idtm, fdtm, lnth, iret ) C************************************************************************ C* DE_VI2F * C* * C* This subroutine converts a forecast valid time of the form * C* YYMMDD/HHNN and an initial GEMPAK time of the form yymmdd/hhnn * C* into a proper GEMPAK forecast time stamp of the form * C* yymmdd/hhnnFhhhnn. * C* * C* TG_VI2F ( VDTM, IDTM, FDTM, LNTH, IRET ) * C* * C* Input parameters: * C* VDTM CHAR* Valid GEMPAK time, YYMMDD/HHNN * C* IDTM CHAR* Init. GEMPAK time, yymmdd/hhnn * C* * C* Output parameters: * C* FDTM CHAR* Forecast time, yymmdd/hhnn * C* LNTH INTEGER Length of string FDTM * C* IRET INTEGER Return code * C* 0 = normal return * C* -1 = invalid date or time * C* -3 = invalid forecast time * C** * C* Log: * C* T. Lee/SAIC 1/05 * C************************************************************************ CHARACTER() vdtm, idtm, fdtm CHARACTER sfh3, snn2 C------------------------------------------------------------------------ iret = 0 lnth = 0 C C* Return if VDTM or IDTM is blank, C IF ( ( vdtm .eq. ' ' ) .or. ( idtm .eq. ' ' ) ) THEN iret = -1 fdtm = ' ' RETURN END IF C C* Compute the difference between valid time and initial time. C CALL TG_DIFF ( vdtm, idtm, nmin, iret ) IF ( iret .ne. 0 ) RETURN C IF ( ( nmin .lt. 0 ) .or. ( nmin .ge. 60000 ) ) THEN iret = -3 RETURN END IF C ifh = nmin / 60 nn = MOD ( nmin, 60 ) WRITE ( sfh, 50, IOSTAT = ier ) ifh 50 FORMAT ( I3.3 ) WRITE ( snn, 60, IOSTAT = ier ) nn 60 FORMAT ( I2.2 ) C C* Construct the forecast time stamp. C CALL ST_LSTR ( idtm, lstr, ier ) fdtm = idtm ( :lstr ) // 'F' // sfh // snn C CALL ST_LSTR ( fdtm, lnth, ier ) C* RETURN END	gempak/source/gemlib/tg/tgvi2f.f
! Copyright (c) 2013, NVIDIA CORPORATION. All rights reserved. ! ! Licensed under the Apache License, Version 2.0 (the "License"); ! you may not use this file except in compliance with the License. ! You may obtain a copy of the License at ! ! http://www.apache.org/licenses/LICENSE-2.0 ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. ! ! Tests F2003 defined I/O (recursive read) module person_module logical rslt(10), expect(10) integer :: cnt type :: person character(len=20) :: name integer :: age contains procedure :: my_read => rf procedure :: my_write => wf generic :: READ(FORMATTED) => my_read generic :: WRITE(FORMATTED) => my_write end type type, extends(person) :: employee integer id real salary contains procedure :: my_read => rf2 procedure :: my_write => wf2 end type contains recursive subroutine rf(dtv, unit, iotype, vlist, iostat, iomsg) class(person), intent(inout) :: dtv integer, intent(in) :: unit character(len=),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=), intent(inout) :: iomsg character(len=9) :: pfmt read (unit, , iostat=iostat) dtv%name, dtv%age if (iostat .eq. 0) then cnt = cnt + 1 rslt(cnt) = dtv%age .eq. 40+(cnt-1) read(unit, ) dtv endif end subroutine subroutine wf(dtv, unit, iotype, vlist, iostat, iomsg) class(person), intent(inout) :: dtv integer, intent(in) :: unit character(len=),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=), intent(inout) :: iomsg character(len=9) :: pfmt write (unit, ) dtv%name, dtv%age end subroutine subroutine wf2(dtv, unit, iotype, vlist, iostat, iomsg) class(employee), intent(inout) :: dtv integer, intent(in) :: unit character(len=),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=), intent(inout) :: iomsg character(len=9) :: pfmt write (unit, ) dtv%name, dtv%age, dtv%id, dtv%salary end subroutine recursive subroutine rf2(dtv, unit, iotype, vlist, iostat, iomsg) class(employee), intent(inout) :: dtv integer, intent(in) :: unit character(len=),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=), intent(inout) :: iomsg character(len=9) :: pfmt read (unit, , iostat=iostat) dtv%name, dtv%age, dtv%id, dtv%salary if (iostat .eq. 0) then cnt = cnt + 1 rslt(cnt) = dtv%id .eq. 100+(cnt-1) read(unit, ) dtv endif end subroutine end module use person_module integer id, members type(employee) :: chairman chairman%name='myname' chairman%age=40 chairman%id = 100 chairman%salary = 0 rslt = .false. expect = .true. open(11, file='io16.output', status='replace') do i=1,10 write(11, ) chairman chairman%id = chairman%id + 1 enddo cnt = 0 open(11, file='io16.output', position='rewind') read(11, ) chairman close(11) call check(rslt, expect, 10) end	test/f90_correct/src/io16.f90
subroutine blue(value,hexrep,bfrac) C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% C % C Copyright (C) 1996, The Board of Trustees of the Leland Stanford % C Junior University. All rights reserved. % C % C The programs in GSLIB are distributed in the hope that they will be % C useful, but WITHOUT ANY WARRANTY. No author or distributor accepts % C responsibility to anyone for the consequences of using them or for % C whether they serve any particular purpose or work at all, unless he % C says so in writing. Everyone is granted permission to copy, modify % C and redistribute the programs in GSLIB, but only under the condition % C that this notice and the above copyright notice remain intact. % C % C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% c----------------------------------------------------------------------- c c Provided with a real value ``value'' this subroutine returns the blue c portion of the color specification. c c Note common block "color" and call to "hexa" c c----------------------------------------------------------------------- real value character hexrep2,hexa2 common /color/ cmin,cmax,cint(4),cscl hexrep = '00' if(value.lt.cint(2))then c c Scale it between (255,255): c integ = 255 else if((value.ge.cint(2)).and.(value.lt.cint(3)))then c c Scale it between (255,0): c integ = int((cint(3)-value)/(cint(3)-cint(2))*255.) if(integ.gt.255) integ = 255 if(integ.lt.0) integ = 0 else if(value.ge.cint(3))then c c Scale it between (0,0): c integ = 0 end if c c Establish coding and return: c bfrac = real(integ) / 255. hexrep = hexa(integ) return end	visim/visim_src/gslib/blue.f
SUBROUTINE DEG2CHR(DEGS,LATLON,CHAR) C****************************************************************** C# SUB DEG2CHR(DEGS,LATLON,CHAR) Degrees to CHARACTER (xxxNxx'xx") C Convert degrees to characters for output. C DEGS = input degrees (may be -180 to 180 or 0 to 360) C LATLON=0= latitude format xxxNxx'xx" C =1= longitude format xxxExx'xx" c =2= latitude format xx.xxN c =3= longitude format xxx.xxE C CHAR = CHARACTER10 output C***************************************************************** CHARACTER() CHAR CHARACTER1 NSEW DEG=DEGS IF(DEG.GT.180.) DEG=DEG-360. modd=mod(latlon,2) IF(modd.EQ.0 .AND. DEG.GE.0.) NSEW='N' IF(modd.EQ.0 .AND. DEG.LT.0.) NSEW='S' IF(modd.NE.0 .AND. DEG.GE.0.) NSEW='E' IF(modd.NE.0 .AND. DEG.LT.0.) NSEW='W' D=ABS(DEG) IDEG=D D=(D-IDEG)60. MIN=D ISEC=(D-MIN)*60. + .5 IF(ISEC.LT.60) GO TO 10 ISEC=0 MIN=MIN+1 IF(MIN.LT.60) GO TO 10 MIN=MIN-60 IDEG=IDEG+1 10 if(latlon.le.1) then WRITE(CHAR,11) IDEG,NSEW,MIN,ISEC 11 format(i3,a1,i2,1h',i2,1h") else WRITE(CHAR,'(f6.2,a1)') abs(DEG),NSEW end if RETURN END	src/voa_lib/deg2chr.for
! ! Copyright 2019-2020 SALMON developers ! ! Licensed under the Apache License, Version 2.0 (the "License"); ! you may not use this file except in compliance with the License. ! You may obtain a copy of the License at ! ! http://www.apache.org/licenses/LICENSE-2.0 ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. ! module jellium implicit none contains !=========================================================================================== != check condition ========================================================================= subroutine check_condition_jm use salmon_global, only: yn_md, yn_opt, yn_out_pdos, yn_out_tm, yn_out_rvf_rt, nelem, natom, nelec, spin, xc, & yn_periodic, layout_multipole, shape_file_jm, num_jm, sphere_nion_jm, & method_singlescale use parallelization, only: nproc_id_global use communication, only: comm_is_root implicit none call condition_yn_jm(yn_md, 'yn_md', 'n') call condition_yn_jm(yn_opt, 'yn_opt', 'n') call condition_yn_jm(yn_out_pdos, 'yn_out_pdos', 'n') call condition_yn_jm(yn_out_tm, 'yn_out_tm', 'n') call condition_yn_jm(yn_out_rvf_rt,'yn_out_rvf_rt','n') call condition_int_jm(nelem,'nelem',1) call condition_int_jm(natom,'natom',1) if(yn_periodic=='n'.and.layout_multipole/=1) then if(comm_is_root(nproc_id_global)) & write(,'("For yn_jm = y and yn_periodic = n, layout_multipole must be 1.")') stop end if if(mod(nelec,2)/=0) then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, nelec must be even number.")') stop end if if(trim(spin)/='unpolarized') then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, spin must be even unpolarized.")') stop end if if(trim(xc)/='pz') then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, xc must be pz.")') stop end if if(trim(method_singlescale)/='3d') then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, method_singlescale must be 3d.")') stop end if if (trim(shape_file_jm)=='none' .and. nelec/=sum(sphere_nion_jm(:)))then if(comm_is_root(nproc_id_global)) & write(,'("For yn_jm = y and shape_file_jm = none, nelec must be sum(sphere_nion_jm).")') stop end if if(num_jm<1) then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, num_jm must be larger than 0.")') stop end if return contains !+ CONTAINED IN check_condition_jm +++++++++++++++++++++++++++++++++++++++++++++++++++++++ !+ check condition for y/n +++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ subroutine condition_yn_jm(tar,name,ans) implicit none character(1),intent(in) :: tar character(),intent(in) :: name character(1),intent(in) :: ans if (tar/=ans) then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, ",A," must be ",A,".")') name,ans stop end if return end subroutine condition_yn_jm !+ CONTAINED IN check_condition_jm +++++++++++++++++++++++++++++++++++++++++++++++++++++++ !+ check condition for integer +++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ subroutine condition_int_jm(tar,name,ans) implicit none integer, intent(in) :: tar character(),intent(in) :: name integer, intent(in) :: ans if (tar/=ans) then if(comm_is_root(nproc_id_global)) write(,'("For yn_jm = y, ",A," must be ",I4,".")') name,ans stop end if return end subroutine condition_int_jm end subroutine check_condition_jm !=========================================================================================== != meke positive back ground charge density ================================================ subroutine make_rho_jm(lg,mg,info,system,rho_jm) use salmon_global, only: shape_file_jm, num_jm, rs_bohr_jm, sphere_nion_jm, sphere_loc_jm, & yn_charge_neutral_jm, yn_output_dns_jm, yn_periodic, nelec, unit_system use inputoutput, only: ulength_from_au use structures, only: s_rgrid, s_dft_system, s_parallel_info, s_scalar, allocate_scalar use parallelization, only: nproc_id_global, nproc_group_global use communication, only: comm_is_root, comm_summation use common_maxwell, only: input_shape_em use write_file3d, only: write_cube use math_constants, only: pi implicit none type(s_rgrid), intent(in) :: lg, mg type(s_parallel_info), intent(in) :: info type(s_dft_system), intent(in) :: system type(s_scalar), intent(inout) :: rho_jm type(s_scalar) :: work_l1,work_l2 integer,allocatable :: imedia(:,:,:) integer :: ii, ix, iy, iz, nelec_sum, mod_nelec real(8),allocatable :: dens(:), radi(:), mod_rs_bohr_jm(:) real(8) :: rab, charge_sum, charge_error character(60) :: suffix character(30) :: phys_quantity !set density allocate(dens(num_jm)); dens(:)=0.0d0; do ii=1,num_jm dens(ii) = 1.0d0/(4.0d0pi/3.0(rs_bohr_jm(ii)3.0d0)) end do !make rho_jm if (trim(shape_file_jm)=='none')then !***********************************************************************************! !* rho_jm is generated by spherecal shapes ****************************************! !***********************************************************************************! !allocate radius allocate(radi(num_jm)); radi(:)=0.0d0; !make spheres do ii=1,num_jm !set radius radi(ii) = ( dble(sphere_nion_jm(ii))/dens(ii)/(4.0d0pi/3.0) )(1.0d0/3.0d0) !make ii-th sphere do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) rab = sqrt( (lg%coordinate(ix,1)-sphere_loc_jm(ii,1))2.0d0 & +(lg%coordinate(iy,2)-sphere_loc_jm(ii,2))2.0d0 & +(lg%coordinate(iz,3)-sphere_loc_jm(ii,3))2.0d0 ) if(rab<=radi(ii)) rho_jm%f(ix,iy,iz)=dens(ii) end do end do end do end do !set total electron number nelec_sum = sum(sphere_nion_jm(:)) else !************************************************************************************! !* rho_jm is generated by cube file ***********************************************! !***********************************************************************************! !input shape allocate(imedia(mg%is(1):mg%ie(1),mg%is(2):mg%ie(2),mg%is(3):mg%ie(3))); imedia(:,:,:)=0; if(comm_is_root(nproc_id_global)) write(,) if(comm_is_root(nproc_id_global)) write(,) "************************" if(index(shape_file_jm,".cube", back=.true.)/=0) then if(comm_is_root(nproc_id_global)) then write(,) "shape file is inputed by .cube format." end if call input_shape_em(shape_file_jm,600,mg%is,mg%ie,lg%is,lg%ie,0,imedia,'cu') elseif(index(shape_file_jm,".mp", back=.true.)/=0) then if(comm_is_root(nproc_id_global)) then write(,) "shape file is inputed by .mp format." write(,) "This version works for only .cube format.." end if stop else if(comm_is_root(nproc_id_global)) then write(,) "shape file must be .cube or .mp formats." end if stop end if if(comm_is_root(nproc_id_global)) write(,) "************************" !make rho_jm from shape file do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) if(imedia(ix,iy,iz)>0) rho_jm%f(ix,iy,iz)=dens(imedia(ix,iy,iz)) end do end do end do !set total electron number nelec_sum = nelec end if !check charge neutrality call check_neutral_jm(charge_sum,charge_error,nelec_sum) !propose modified parameter & stop !or modify parameters allocate(mod_rs_bohr_jm(num_jm)); mod_rs_bohr_jm(:)=0.0d0; if(charge_error>=2.0d0/dble(nelec))then !stop & propose modified parameter mod_nelec = int(charge_sum) if(mod(mod_nelec,2)/=0) mod_nelec=mod_nelec+1 if(comm_is_root(nproc_id_global))then write(,) write(,'("Charge nertrality error is",E23.15E3,".")') charge_error write(,'("To improve charge nertrality, change nelec to",I9,".")') mod_nelec end if stop else !modify parameters and recheck neutrality if(yn_charge_neutral_jm=='y')then rho_jm%f(:,:,:) = rho_jm%f(:,:,:) ( dble(nelec)/charge_sum ) dens(:) = dens(:) * ( dble(nelec)/charge_sum ) mod_rs_bohr_jm(:) = ( 1.0d0/(4.0d0pi/3.0dens(:)) )*(1.0d0/3.0d0) call check_neutral_jm(charge_sum,charge_error,nelec_sum) end if end if !output cube file if(yn_output_dns_jm=='y') then call allocate_scalar(lg,work_l1); call allocate_scalar(lg,work_l2); do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) work_l1%f(ix,iy,iz) = rho_jm%f(ix,iy,iz) end do end do end do call comm_summation(work_l1%f,work_l2%f,lg%num(1)lg%num(2)lg%num(3),nproc_group_global) suffix = "dns_jellium"; phys_quantity = "pbcd"; call write_cube(lg,103,suffix,phys_quantity,work_l2%f,system) end if !write information if(comm_is_root(nproc_id_global))then write(,) write(,) '*************** Jellium information ***************' if(trim(shape_file_jm)=='none')then write(,'(" Positive background charge density is generated by spherecal shapes:")') do ii=1,num_jm write(, '(A,I3,A,E23.15E3)') ' Radius of sphere(',ii,') =', radi(ii)ulength_from_au end do write(,) " in the unit system, ",trim(unit_system),"." else write(,'(" Positive background charge density is generated by shape file.")') end if if(sum(mod_rs_bohr_jm(:))==0.0d0) then write(,'(" Wigner-Seitz radius is set as follows:")') do ii=1,num_jm write(, '(A,I3,A,E23.15E3)') ' rs_bohr_jm(',ii,') =', rs_bohr_jm(ii) end do else write(,'(" To keep charge neutrality, Wigner-Seitz radius is modified as follows:")') do ii=1,num_jm write(, '(A,I3,A,E23.15E3)') ' mod_rs_bohr_jm(',ii,') =', mod_rs_bohr_jm(ii) end do end if write(,) " in the atomic unit(Bohr)." write(,'(A,E23.15E3," %")') ' Chrge neutrality error =', charge_error if(yn_periodic=='y') then write(,) write(,'(" For yn_jm = y and yn_periodic=y, this version still cannot output Total Energy.")') write(,) end if write(,) '*******************************************************' write(,) end if !change sign in view of electron density rho_jm%f(:,:,:) = -rho_jm%f(:,:,:) return contains !+ CONTAINED IN make_rho_jm ++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ !+ check charge neutrality +++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ subroutine check_neutral_jm(sum_c,err,num_e) implicit none real(8), intent(inout) :: sum_c real(8), intent(out) :: err integer, intent(in) :: num_e real(8) :: sum_tmp sum_tmp = 0.0d0; sum_c = 0.0d0; !$omp parallel !$omp do private(ix,iy,iz) reduction( + : sum_tmp ) do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) sum_tmp = sum_tmp + rho_jm%f(ix,iy,iz) end do end do end do !$omp end do !$omp end parallel call comm_summation(sum_tmp,sum_c,info%icomm_r) sum_c = sum_c system%hvol err = abs( (sum_c - dble(num_e)) / dble(num_e) ) return end subroutine check_neutral_jm end subroutine make_rho_jm end module jellium	src/atom/jellium.f90
! Loop recovery fails. Might be due to semantics not providing the ! necessary preconditions c%2.3 subroutine s234 (ntimes,ld,n,ctime,dtime,a,b,c,d,e,aa,bb,cc) c c loop interchange c if loop to do loop, interchanging with if loop necessary c integer ntimes, ld, n, i, nl, j real a(n), b(n), c(n), d(n), e(n), aa(ld,n), bb(ld,n), cc(ld,n) real t1, t2, second, chksum, ctime, dtime, cs2d ! call init(ld,n,a,b,c,d,e,aa,bb,cc,'s234 ') ! t1 = second() do 1 nl = 1,ntimes/n i = 1 11 if(i.gt.n) goto 10 j = 2 21 if(j.gt.n) goto 20 aa(i,j) = aa(i,j-1) + bb(i,j-1) * cc(i,j-1) j = j + 1 goto 21 20 i = i + 1 goto 11 10 continue ! call dummy(ld,n,a,b,c,d,e,aa,bb,cc,1.) 1 continue ! t2 = second() - t1 - ctime - ( dtime * float(ntimes/n) ) ! chksum = cs2d(n,aa) ! call check (chksum,(ntimes/n)n(n-1),n,t2,'s234 ') return end	packages/PIPS/validation/Transformations/S234.f
!==ctrevc3.f90 processed by SPAG 7.51RB at 20:08 on 3 Mar 2022 !> \brief \b CTREVC3 ! ! =========== DOCUMENTATION =========== ! ! Online html documentation available at ! http://www.netlib.org/lapack/explore-html/ ! !> \htmlonly !> Download CTREVC3 + dependencies !> <a href="http://www.netlib.org/cgi-bin/netlibfiles.tgz?format=tgz&filename=/lapack/lapack_routine/ctrevc3.f"> !> [TGZ]</a> !> <a href="http://www.netlib.org/cgi-bin/netlibfiles.zip?format=zip&filename=/lapack/lapack_routine/ctrevc3.f"> !> [ZIP]</a> !> <a href="http://www.netlib.org/cgi-bin/netlibfiles.txt?format=txt&filename=/lapack/lapack_routine/ctrevc3.f"> !> [TXT]</a> !> \endhtmlonly ! ! Definition: ! =========== ! ! SUBROUTINE CTREVC3( SIDE, HOWMNY, SELECT, N, T, LDT, VL, LDVL, VR, ! LDVR, MM, M, WORK, LWORK, RWORK, LRWORK, INFO) ! ! .. Scalar Arguments .. ! CHARACTER HOWMNY, SIDE ! INTEGER INFO, LDT, LDVL, LDVR, LWORK, M, MM, N ! .. ! .. Array Arguments .. ! LOGICAL SELECT( ) ! REAL RWORK( * ) ! COMPLEX T( LDT, * ), VL( LDVL, * ), VR( LDVR, * ), ! $ WORK( * ) ! .. ! ! !> \par Purpose: ! ============= !> !> \verbatim !> !> CTREVC3 computes some or all of the right and/or left eigenvectors of !> a complex upper triangular matrix T. !> Matrices of this type are produced by the Schur factorization of !> a complex general matrix: A = QTQ*H, as computed by CHSEQR. !> !> The right eigenvector x and the left eigenvector y of T corresponding !> to an eigenvalue w are defined by: !> !> Tx = wx, (yH)T = w(yH) !> !> where yH denotes the conjugate transpose of the vector y. !> The eigenvalues are not input to this routine, but are read directly !> from the diagonal of T. !> !> This routine returns the matrices X and/or Y of right and left !> eigenvectors of T, or the products QX and/or QY, where Q is an !> input matrix. If Q is the unitary factor that reduces a matrix A to !> Schur form T, then QX and QY are the matrices of right and left !> eigenvectors of A. !> !> This uses a Level 3 BLAS version of the back transformation. !> \endverbatim ! ! Arguments: ! ========== ! !> \param[in] SIDE !> \verbatim !> SIDE is CHARACTER1 !> = 'R': compute right eigenvectors only; !> = 'L': compute left eigenvectors only; !> = 'B': compute both right and left eigenvectors. !> \endverbatim !> !> \param[in] HOWMNY !> \verbatim !> HOWMNY is CHARACTER1 !> = 'A': compute all right and/or left eigenvectors; !> = 'B': compute all right and/or left eigenvectors, !> backtransformed using the matrices supplied in !> VR and/or VL; !> = 'S': compute selected right and/or left eigenvectors, !> as indicated by the logical array SELECT. !> \endverbatim !> !> \param[in] SELECT !> \verbatim !> SELECT is LOGICAL array, dimension (N) !> If HOWMNY = 'S', SELECT specifies the eigenvectors to be !> computed. !> The eigenvector corresponding to the j-th eigenvalue is !> computed if SELECT(j) = .TRUE.. !> Not referenced if HOWMNY = 'A' or 'B'. !> \endverbatim !> !> \param[in] N !> \verbatim !> N is INTEGER !> The order of the matrix T. N >= 0. !> \endverbatim !> !> \param[in,out] T !> \verbatim !> T is COMPLEX array, dimension (LDT,N) !> The upper triangular matrix T. T is modified, but restored !> on exit. !> \endverbatim !> !> \param[in] LDT !> \verbatim !> LDT is INTEGER !> The leading dimension of the array T. LDT >= max(1,N). !> \endverbatim !> !> \param[in,out] VL !> \verbatim !> VL is COMPLEX array, dimension (LDVL,MM) !> On entry, if SIDE = 'L' or 'B' and HOWMNY = 'B', VL must !> contain an N-by-N matrix Q (usually the unitary matrix Q of !> Schur vectors returned by CHSEQR). !> On exit, if SIDE = 'L' or 'B', VL contains: !> if HOWMNY = 'A', the matrix Y of left eigenvectors of T; !> if HOWMNY = 'B', the matrix QY; !> if HOWMNY = 'S', the left eigenvectors of T specified by !> SELECT, stored consecutively in the columns !> of VL, in the same order as their !> eigenvalues. !> Not referenced if SIDE = 'R'. !> \endverbatim !> !> \param[in] LDVL !> \verbatim !> LDVL is INTEGER !> The leading dimension of the array VL. !> LDVL >= 1, and if SIDE = 'L' or 'B', LDVL >= N. !> \endverbatim !> !> \param[in,out] VR !> \verbatim !> VR is COMPLEX array, dimension (LDVR,MM) !> On entry, if SIDE = 'R' or 'B' and HOWMNY = 'B', VR must !> contain an N-by-N matrix Q (usually the unitary matrix Q of !> Schur vectors returned by CHSEQR). !> On exit, if SIDE = 'R' or 'B', VR contains: !> if HOWMNY = 'A', the matrix X of right eigenvectors of T; !> if HOWMNY = 'B', the matrix QX; !> if HOWMNY = 'S', the right eigenvectors of T specified by !> SELECT, stored consecutively in the columns !> of VR, in the same order as their !> eigenvalues. !> Not referenced if SIDE = 'L'. !> \endverbatim !> !> \param[in] LDVR !> \verbatim !> LDVR is INTEGER !> The leading dimension of the array VR. !> LDVR >= 1, and if SIDE = 'R' or 'B', LDVR >= N. !> \endverbatim !> !> \param[in] MM !> \verbatim !> MM is INTEGER !> The number of columns in the arrays VL and/or VR. MM >= M. !> \endverbatim !> !> \param[out] M !> \verbatim !> M is INTEGER !> The number of columns in the arrays VL and/or VR actually !> used to store the eigenvectors. !> If HOWMNY = 'A' or 'B', M is set to N. !> Each selected eigenvector occupies one column. !> \endverbatim !> !> \param[out] WORK !> \verbatim !> WORK is COMPLEX array, dimension (MAX(1,LWORK)) !> \endverbatim !> !> \param[in] LWORK !> \verbatim !> LWORK is INTEGER !> The dimension of array WORK. LWORK >= max(1,2N). !> For optimum performance, LWORK >= N + 2NNB, where NB is !> the optimal blocksize. !> !> If LWORK = -1, then a workspace query is assumed; the routine !> only calculates the optimal size of the WORK array, returns !> this value as the first entry of the WORK array, and no error !> message related to LWORK is issued by XERBLA. !> \endverbatim !> !> \param[out] RWORK !> \verbatim !> RWORK is REAL array, dimension (LRWORK) !> \endverbatim !> !> \param[in] LRWORK !> \verbatim !> LRWORK is INTEGER !> The dimension of array RWORK. LRWORK >= max(1,N). !> !> If LRWORK = -1, then a workspace query is assumed; the routine !> only calculates the optimal size of the RWORK array, returns !> this value as the first entry of the RWORK array, and no error !> message related to LRWORK is issued by XERBLA. !> \endverbatim !> !> \param[out] INFO !> \verbatim !> INFO is INTEGER !> = 0: successful exit !> < 0: if INFO = -i, the i-th argument had an illegal value !> \endverbatim ! ! Authors: ! ======== ! !> \author Univ. of Tennessee !> \author Univ. of California Berkeley !> \author Univ. of Colorado Denver !> \author NAG Ltd. ! !> \date November 2017 ! ! @generated from ztrevc3.f, fortran z -> c, Tue Apr 19 01:47:44 2016 ! !> \ingroup complexOTHERcomputational ! !> \par Further Details: ! ===================== !> !> \verbatim !> !> The algorithm used in this program is basically backward (forward) !> substitution, with scaling to make the the code robust against !> possible overflow. !> !> Each eigenvector is normalized so that the element of largest !> magnitude has magnitude 1; here the magnitude of a complex number !> (x,y) is taken to be \|x\| + \|y\|. !> \endverbatim !> ! ===================================================================== SUBROUTINE CTREVC3(Side,Howmny,Select,N,T,Ldt,Vl,Ldvl,Vr,Ldvr,Mm, & & M,Work,Lwork,Rwork,Lrwork,Info) IMPLICIT NONE !--CTREVC3250 ! ! -- LAPACK computational routine (version 3.8.0) -- ! -- LAPACK is a software package provided by Univ. of Tennessee, -- ! -- Univ. of California Berkeley, Univ. of Colorado Denver and NAG Ltd..-- ! November 2017 ! ! .. Scalar Arguments .. CHARACTER Howmny , Side INTEGER Info , Ldt , Ldvl , Ldvr , Lwork , Lrwork , M , Mm , N ! .. ! .. Array Arguments .. LOGICAL Select() REAL Rwork() COMPLEX T(Ldt,) , Vl(Ldvl,) , Vr(Ldvr,) , Work() ! .. ! ! ===================================================================== ! ! .. Parameters .. REAL ZERO , ONE PARAMETER (ZERO=0.0E+0,ONE=1.0E+0) COMPLEX CZERO , CONE PARAMETER (CZERO=(0.0E+0,0.0E+0),CONE=(1.0E+0,0.0E+0)) INTEGER NBMIN , NBMAX PARAMETER (NBMIN=8,NBMAX=128) ! .. ! .. Local Scalars .. LOGICAL allv , bothv , leftv , lquery , over , rightv , somev INTEGER i , ii , is , j , k , ki , iv , maxwrk , nb REAL ovfl , remax , scale , smin , smlnum , ulp , unfl COMPLEX cdum ! .. ! .. External Functions .. LOGICAL LSAME INTEGER ILAENV , ICAMAX REAL SLAMCH , SCASUM EXTERNAL LSAME , ILAENV , ICAMAX , SLAMCH , SCASUM ! .. ! .. External Subroutines .. EXTERNAL XERBLA , CCOPY , CLASET , CSSCAL , CGEMM , CGEMV , & & CLATRS , CLACPY , SLABAD ! .. ! .. Intrinsic Functions .. INTRINSIC ABS , REAL , CMPLX , CONJG , AIMAG , MAX ! .. ! .. Statement Functions .. REAL CABS1 ! .. ! .. Statement Function definitions .. CABS1(cdum) = ABS(REAL(cdum)) + ABS(AIMAG(cdum)) ! .. ! .. Executable Statements .. ! ! Decode and test the input parameters ! bothv = LSAME(Side,'B') rightv = LSAME(Side,'R') .OR. bothv leftv = LSAME(Side,'L') .OR. bothv ! allv = LSAME(Howmny,'A') over = LSAME(Howmny,'B') somev = LSAME(Howmny,'S') ! ! Set M to the number of columns required to store the selected ! eigenvectors. ! IF ( somev ) THEN M = 0 DO j = 1 , N IF ( Select(j) ) M = M + 1 ENDDO ELSE M = N ENDIF ! Info = 0 nb = ILAENV(1,'CTREVC',Side//Howmny,N,-1,-1,-1) maxwrk = N + 2Nnb Work(1) = maxwrk Rwork(1) = N lquery = (Lwork==-1 .OR. Lrwork==-1) IF ( .NOT.rightv .AND. .NOT.leftv ) THEN Info = -1 ELSEIF ( .NOT.allv .AND. .NOT.over .AND. .NOT.somev ) THEN Info = -2 ELSEIF ( N<0 ) THEN Info = -4 ELSEIF ( Ldt<MAX(1,N) ) THEN Info = -6 ELSEIF ( Ldvl<1 .OR. (leftv .AND. Ldvl<N) ) THEN Info = -8 ELSEIF ( Ldvr<1 .OR. (rightv .AND. Ldvr<N) ) THEN Info = -10 ELSEIF ( Mm<M ) THEN Info = -11 ELSEIF ( Lwork<MAX(1,2N) .AND. .NOT.lquery ) THEN Info = -14 ELSEIF ( Lrwork<MAX(1,N) .AND. .NOT.lquery ) THEN Info = -16 ENDIF IF ( Info/=0 ) THEN CALL XERBLA('CTREVC3',-Info) RETURN ELSEIF ( lquery ) THEN RETURN ENDIF ! ! Quick return if possible. ! IF ( N==0 ) RETURN ! ! Use blocked version of back-transformation if sufficient workspace. ! Zero-out the workspace to avoid potential NaN propagation. ! IF ( over .AND. Lwork>=N+2NNBMIN ) THEN nb = (Lwork-N)/(2N) nb = MIN(nb,NBMAX) CALL CLASET('F',N,1+2nb,CZERO,CZERO,Work,N) ELSE nb = 1 ENDIF ! ! Set the constants to control overflow. ! unfl = SLAMCH('Safe minimum') ovfl = ONE/unfl CALL SLABAD(unfl,ovfl) ulp = SLAMCH('Precision') smlnum = unfl(N/ulp) ! ! Store the diagonal elements of T in working array WORK. ! DO i = 1 , N Work(i) = T(i,i) ENDDO ! ! Compute 1-norm of each column of strictly upper triangular ! part of T to control overflow in triangular solver. ! Rwork(1) = ZERO DO j = 2 , N Rwork(j) = SCASUM(j-1,T(1,j),1) ENDDO ! IF ( rightv ) THEN ! ! ============================================================ ! Compute right eigenvectors. ! ! IV is index of column in current block. ! Non-blocked version always uses IV=NB=1; ! blocked version starts with IV=NB, goes down to 1. ! (Note the "0-th" column is used to store the original diagonal.) iv = nb is = M DO ki = N , 1 , -1 IF ( somev ) THEN IF ( .NOT.Select(ki) ) CYCLE ENDIF smin = MAX(ulp(CABS1(T(ki,ki))),smlnum) ! ! -------------------------------------------------------- ! Complex right eigenvector ! Work(ki+ivN) = CONE ! ! Form right-hand side. ! DO k = 1 , ki - 1 Work(k+ivN) = -T(k,ki) ENDDO ! ! Solve upper triangular system: ! [ T(1:KI-1,1:KI-1) - T(KI,KI) ]X = SCALEWORK. ! DO k = 1 , ki - 1 T(k,k) = T(k,k) - T(ki,ki) IF ( CABS1(T(k,k))<smin ) T(k,k) = smin ENDDO ! IF ( ki>1 ) THEN CALL CLATRS('Upper','No transpose','Non-unit','Y',ki-1,T,& & Ldt,Work(1+ivN),scale,Rwork,Info) Work(ki+ivN) = scale ENDIF ! ! Copy the vector x or Qx to VR and normalize. ! IF ( .NOT.over ) THEN ! ------------------------------ ! no back-transform: copy x to VR and normalize. CALL CCOPY(ki,Work(1+ivN),1,Vr(1,is),1) ! ii = ICAMAX(ki,Vr(1,is),1) remax = ONE/CABS1(Vr(ii,is)) CALL CSSCAL(ki,remax,Vr(1,is),1) ! DO k = ki + 1 , N Vr(k,is) = CZERO ENDDO ! ELSEIF ( nb==1 ) THEN ! ------------------------------ ! version 1: back-transform each vector with GEMV, Qx. IF ( ki>1 ) CALL CGEMV('N',N,ki-1,CONE,Vr,Ldvr, & & Work(1+ivN),1,CMPLX(scale), & & Vr(1,ki),1) ! ii = ICAMAX(N,Vr(1,ki),1) remax = ONE/CABS1(Vr(ii,ki)) CALL CSSCAL(N,remax,Vr(1,ki),1) ! ELSE ! ------------------------------ ! version 2: back-transform block of vectors with GEMM ! zero out below vector DO k = ki + 1 , N Work(k+ivN) = CZERO ENDDO ! ! Columns IV:NB of work are valid vectors. ! When the number of vectors stored reaches NB, ! or if this was last vector, do the GEMM IF ( (iv==1) .OR. (ki==1) ) THEN CALL CGEMM('N','N',N,nb-iv+1,ki+nb-iv,CONE,Vr,Ldvr, & & Work(1+(iv)N),N,CZERO,Work(1+(nb+iv)N),N) ! normalize vectors DO k = iv , nb ii = ICAMAX(N,Work(1+(nb+k)N),1) remax = ONE/CABS1(Work(ii+(nb+k)N)) CALL CSSCAL(N,remax,Work(1+(nb+k)N),1) ENDDO CALL CLACPY('F',N,nb-iv+1,Work(1+(nb+iv)N),N,Vr(1,ki)& & ,Ldvr) iv = nb ELSE iv = iv - 1 ENDIF ENDIF ! ! Restore the original diagonal elements of T. ! DO k = 1 , ki - 1 T(k,k) = Work(k) ENDDO ! is = is - 1 ENDDO ENDIF ! IF ( leftv ) THEN ! ! ============================================================ ! Compute left eigenvectors. ! ! IV is index of column in current block. ! Non-blocked version always uses IV=1; ! blocked version starts with IV=1, goes up to NB. ! (Note the "0-th" column is used to store the original diagonal.) iv = 1 is = 1 DO ki = 1 , N ! IF ( somev ) THEN IF ( .NOT.Select(ki) ) CYCLE ENDIF smin = MAX(ulp(CABS1(T(ki,ki))),smlnum) ! ! -------------------------------------------------------- ! Complex left eigenvector ! Work(ki+ivN) = CONE ! ! Form right-hand side. ! DO k = ki + 1 , N Work(k+ivN) = -CONJG(T(ki,k)) ENDDO ! ! Solve conjugate-transposed triangular system: ! [ T(KI+1:N,KI+1:N) - T(KI,KI) ]*H X = SCALEWORK. ! DO k = ki + 1 , N T(k,k) = T(k,k) - T(ki,ki) IF ( CABS1(T(k,k))<smin ) T(k,k) = smin ENDDO ! IF ( ki<N ) THEN CALL CLATRS('Upper','Conjugate transpose','Non-unit','Y',& & N-ki,T(ki+1,ki+1),Ldt,Work(ki+1+ivN),scale, & & Rwork,Info) Work(ki+ivN) = scale ENDIF ! ! Copy the vector x or Qx to VL and normalize. ! IF ( .NOT.over ) THEN ! ------------------------------ ! no back-transform: copy x to VL and normalize. CALL CCOPY(N-ki+1,Work(ki+ivN),1,Vl(ki,is),1) ! ii = ICAMAX(N-ki+1,Vl(ki,is),1) + ki - 1 remax = ONE/CABS1(Vl(ii,is)) CALL CSSCAL(N-ki+1,remax,Vl(ki,is),1) ! DO k = 1 , ki - 1 Vl(k,is) = CZERO ENDDO ! ELSEIF ( nb==1 ) THEN ! ------------------------------ ! version 1: back-transform each vector with GEMV, Qx. IF ( ki<N ) CALL CGEMV('N',N,N-ki,CONE,Vl(1,ki+1),Ldvl, & & Work(ki+1+ivN),1,CMPLX(scale), & & Vl(1,ki),1) ! ii = ICAMAX(N,Vl(1,ki),1) remax = ONE/CABS1(Vl(ii,ki)) CALL CSSCAL(N,remax,Vl(1,ki),1) ! ELSE ! ------------------------------ ! version 2: back-transform block of vectors with GEMM ! zero out above vector ! could go from KI-NV+1 to KI-1 DO k = 1 , ki - 1 Work(k+ivN) = CZERO ENDDO ! ! Columns 1:IV of work are valid vectors. ! When the number of vectors stored reaches NB, ! or if this was last vector, do the GEMM IF ( (iv==nb) .OR. (ki==N) ) THEN CALL CGEMM('N','N',N,iv,N-ki+iv,CONE,Vl(1,ki-iv+1), & & Ldvl,Work(ki-iv+1+(1)N),N,CZERO, & & Work(1+(nb+1)N),N) ! normalize vectors DO k = 1 , iv ii = ICAMAX(N,Work(1+(nb+k)N),1) remax = ONE/CABS1(Work(ii+(nb+k)N)) CALL CSSCAL(N,remax,Work(1+(nb+k)N),1) ENDDO CALL CLACPY('F',N,iv,Work(1+(nb+1)N),N,Vl(1,ki-iv+1),& & Ldvl) iv = 1 ELSE iv = iv + 1 ENDIF ENDIF ! ! Restore the original diagonal elements of T. ! DO k = ki + 1 , N T(k,k) = Work(k) ENDDO ! is = is + 1 ENDDO ENDIF ! ! ! End of CTREVC3 ! END SUBROUTINE CTREVC3	src/complex/ctrevc3.f90
active component C { async command C opcode "abc" }	compiler/tools/fpp-check/test/command/bad_opcode.fpp
c--------------------------------------------------------------------- c--------------------------------------------------------------------- subroutine make_set c--------------------------------------------------------------------- c--------------------------------------------------------------------- c--------------------------------------------------------------------- c This function allocates space for a set of cells and fills the set c such that communication between cells on different nodes is only c nearest neighbor c--------------------------------------------------------------------- include 'header.h' include 'mpinpb.h' integer p, i, j, c, dir, size, excess, ierr,ierrcode c--------------------------------------------------------------------- c compute square root; add small number to allow for roundoff c (note: this is computed in setup_mpi.f also, but prefer to do c it twice because of some include file problems). c--------------------------------------------------------------------- ncells = dint(dsqrt(dble(no_nodes) + 0.00001d0)) c--------------------------------------------------------------------- c this makes coding easier c--------------------------------------------------------------------- p = ncells c--------------------------------------------------------------------- c determine the location of the cell at the bottom of the 3D c array of cells c--------------------------------------------------------------------- cell_coord(1,1) = mod(node,p) cell_coord(2,1) = node/p cell_coord(3,1) = 0 c--------------------------------------------------------------------- c set the cell_coords for cells in the rest of the z-layers; c this comes down to a simple linear numbering in the z-direct- c ion, and to the doubly-cyclic numbering in the other dirs c--------------------------------------------------------------------- do c=2, p cell_coord(1,c) = mod(cell_coord(1,c-1)+1,p) cell_coord(2,c) = mod(cell_coord(2,c-1)-1+p,p) cell_coord(3,c) = c-1 end do c--------------------------------------------------------------------- c offset all the coordinates by 1 to adjust for Fortran arrays c--------------------------------------------------------------------- do dir = 1, 3 do c = 1, p cell_coord(dir,c) = cell_coord(dir,c) + 1 end do end do c--------------------------------------------------------------------- c slice(dir,n) contains the sequence number of the cell that is in c coordinate plane n in the dir direction c--------------------------------------------------------------------- do dir = 1, 3 do c = 1, p slice(dir,cell_coord(dir,c)) = c end do end do c--------------------------------------------------------------------- c fill the predecessor and successor entries, using the indices c of the bottom cells (they are the same at each level of k c anyway) acting as if full periodicity pertains; note that p is c added to those arguments to the mod functions that might c otherwise return wrong values when using the modulo function c--------------------------------------------------------------------- i = cell_coord(1,1)-1 j = cell_coord(2,1)-1 predecessor(1) = mod(i-1+p,p) + pj predecessor(2) = i + pmod(j-1+p,p) predecessor(3) = mod(i+1,p) + pmod(j-1+p,p) successor(1) = mod(i+1,p) + pj successor(2) = i + pmod(j+1,p) successor(3) = mod(i-1+p,p) + pmod(j+1,p) c--------------------------------------------------------------------- c now compute the sizes of the cells c--------------------------------------------------------------------- do dir= 1, 3 c--------------------------------------------------------------------- c set cell_coord range for each direction c--------------------------------------------------------------------- size = grid_points(dir)/p excess = mod(grid_points(dir),p) do c=1, ncells if (cell_coord(dir,c) .le. excess) then cell_size(dir,c) = size+1 cell_low(dir,c) = (cell_coord(dir,c)-1)(size+1) cell_high(dir,c) = cell_low(dir,c)+size else cell_size(dir,c) = size cell_low(dir,c) = excess(size+1)+ > (cell_coord(dir,c)-excess-1)size cell_high(dir,c) = cell_low(dir,c)+size-1 endif if (cell_size(dir, c) .le. 2) then write(,50) 50 format(' Error: Cell size too small. Min size is 3') ierrcode = 1 call MPI_Abort(mpi_comm_world,ierrcode,ierr) stop endif end do end do return end c--------------------------------------------------------------------- c---------------------------------------------------------------------	bench/synthetics/NAS/NPB3.3.1/NPB3.3-MPI/BT/make_set.f
module vegetables_utilities_m use iso_varying_string, only: varying_string, operator(//) use strff, only: add_hanging_indentation, join, strff_to_string => to_string, NEWLINE implicit none private public :: to_string, equals_within_absolute, equals_within_relative interface to_string module procedure double_array_to_string module procedure double_matrix_to_string module procedure double_tensor_to_string module procedure integer_array_to_string module procedure integer_matrix_to_string module procedure integer_tensor_to_string end interface contains pure function double_array_to_string(array) result(string) double precision, intent(in) :: array(:) type(varying_string) :: string string = "[" // join(strff_to_string(array), ", ") // "]" end function pure function double_matrix_to_string(matrix) result(string) double precision, intent(in) :: matrix(:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(matrix(i,:)), i = 1, size(matrix, dim=1))], "," // NEWLINE) // "]", & 1) end function pure function double_tensor_to_string(tensor) result(string) double precision, intent(in) :: tensor(:,:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(tensor(i,:,:)), i = 1, size(tensor, dim=1))], "," // NEWLINE) // "]", & 1) end function pure function integer_array_to_string(array) result(string) integer, intent(in) :: array(:) type(varying_string) :: string string = "[" // join(strff_to_string(array), ", ") // "]" end function pure function integer_matrix_to_string(matrix) result(string) integer, intent(in) :: matrix(:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(matrix(i,:)), i = 1, size(matrix, dim=1))], "," // NEWLINE) // "]", & 1) end function pure function integer_tensor_to_string(tensor) result(string) integer, intent(in) :: tensor(:,:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(tensor(i,:,:)), i = 1, size(tensor, dim=1))], "," // NEWLINE) // "]", & 1) end function elemental function equals_within_absolute(expected, actual, tolerance) double precision, intent(in) :: expected double precision, intent(in) :: actual double precision, intent(in) :: tolerance logical :: equals_within_absolute equals_within_absolute = abs(expected - actual) <= tolerance end function elemental function equals_within_relative(expected, actual, tolerance) double precision, intent(in) :: expected double precision, intent(in) :: actual double precision, intent(in) :: tolerance logical :: equals_within_relative double precision, parameter :: MACHINE_TINY = tiny(0.0d0) equals_within_relative = & (abs(expected) <= MACHINE_TINY .and. abs(actual) <= MACHINE_TINY) & .or. (abs(expected - actual) / abs(expected) <= tolerance) end function end module	src/vegetables/utilities_m.f90
module occa_uva_m ! occa/c/uva.h use occa_types_m implicit none interface ! bool occaIsManaged(void ptr); logical(kind=C_bool) function occaIsManaged(ptr) & bind(C, name="occaIsManaged") import C_void_ptr, C_bool implicit none type(C_void_ptr), value :: ptr end function ! void occaStartManaging(void ptr); subroutine occaStartManaging(ptr) bind(C, name="occaStartManaging") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaStopManaging(void ptr); subroutine occaStopManaging(ptr) bind(C, name="occaStopManaging") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaSyncToDevice(void ptr, const occaUDim_t bytes); subroutine occaSyncToDevice(ptr, bytes) bind(C, name="occaSyncToDevice") import C_void_ptr, occaUDim_t implicit none type(C_void_ptr), value :: ptr integer(occaUDim_t), value :: bytes end subroutine ! void occaSyncToHost(void ptr, const occaUDim_t bytes); subroutine occaSyncToHost(ptr, bytes) bind(C, name="occaSyncToHost") import C_void_ptr, occaUDim_t implicit none type(C_void_ptr), value :: ptr integer(occaUDim_t), value :: bytes end subroutine ! bool occaNeedsSync(void ptr); logical(kind=C_bool) function occaNeedsSync(ptr) & bind(C, name="occaNeedsSync") import C_void_ptr, C_bool implicit none type(C_void_ptr), value :: ptr end function ! void occaSync(void ptr); subroutine occaSync(ptr) bind(C, name="occaSync") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaDontSync(void ptr); subroutine occaDontSync(ptr) bind(C, name="occaDontSync") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaFreeUvaPtr(void *ptr); subroutine occaFreeUvaPtr(ptr) bind(C, name="occaFreeUvaPtr") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine end interface end module occa_uva_m	3rd_party/occa/src/fortran/occa_uva_m.f90
program gen_constants implicit none include 'mpif.h' call output("MPI_BYTE ", MPI_BYTE) ! Older versions of OpenMPI (such as those used by default by ! Travis) do not define MPI_WCHAR and the MPI_INT_T types for ! Fortran. We thus don't require them (yet). ! call output("MPI_WCHAR ", MPI_WCHAR) ! call output("MPI_INT8_T ", MPI_INT8_T) ! call output("MPI_UINT8_T ", MPI_UINT8_T) ! call output("MPI_INT16_T ", MPI_INT16_T) ! call output("MPI_UINT16_T ", MPI_UINT16_T) ! call output("MPI_INT32_T ", MPI_INT32_T) ! call output("MPI_UINT32_T ", MPI_UINT32_T) ! call output("MPI_INT64_T ", MPI_INT64_T) ! call output("MPI_UINT64_T ", MPI_UINT64_T) call output("MPI_INTEGER1 ", MPI_INTEGER1) call output("MPI_INTEGER2 ", MPI_INTEGER2) call output("MPI_INTEGER4 ", MPI_INTEGER4) call output("MPI_INTEGER8 ", MPI_INTEGER8) call output("MPI_REAL4 ", MPI_REAL4) call output("MPI_REAL8 ", MPI_REAL8) call output("MPI_COMPLEX8 ", MPI_COMPLEX8) call output("MPI_COMPLEX16 ", MPI_COMPLEX16) call output("MPI_COMM_NULL ", MPI_COMM_NULL) call output("MPI_COMM_SELF ", MPI_COMM_SELF) call output("MPI_COMM_WORLD ", MPI_COMM_WORLD) call output("MPI_COMM_TYPE_SHARED", MPI_COMM_TYPE_SHARED) call output("MPI_OP_NULL ", MPI_OP_NULL) call output("MPI_BAND ", MPI_BAND) call output("MPI_BOR ", MPI_BOR) call output("MPI_BXOR ", MPI_BXOR) call output("MPI_LAND ", MPI_LAND) call output("MPI_LOR ", MPI_LOR) call output("MPI_LXOR ", MPI_LXOR) call output("MPI_MAX ", MPI_MAX) call output("MPI_MAXLOC ", MPI_MAXLOC) call output("MPI_MIN ", MPI_MIN) call output("MPI_NO_OP ", MPI_NO_OP) call output("MPI_MINLOC ", MPI_MINLOC) call output("MPI_PROD ", MPI_PROD) call output("MPI_REPLACE ", MPI_REPLACE) call output("MPI_SUM ", MPI_SUM) call output("MPI_REQUEST_NULL", MPI_REQUEST_NULL) call output("MPI_INFO_NULL ", MPI_INFO_NULL) call output("MPI_STATUS_SIZE ", MPI_STATUS_SIZE) call output("MPI_ERROR ", MPI_ERROR) call output("MPI_SOURCE ", MPI_SOURCE) call output("MPI_TAG ", MPI_TAG) call output("MPI_ANY_SOURCE ", MPI_ANY_SOURCE) call output("MPI_ANY_TAG ", MPI_ANY_TAG) call output("MPI_TAG_UB ", MPI_TAG_UB) call output("MPI_UNDEFINED ", MPI_UNDEFINED) call output("MPI_INFO_NULL ", MPI_INFO_NULL) call output("MPI_LOCK_EXCLUSIVE", MPI_LOCK_EXCLUSIVE) call output("MPI_LOCK_SHARED ", MPI_LOCK_SHARED) contains subroutine output(name, value) character() name integer value print '("const ",a," = Cint(",i0,")")', name, value end subroutine output end program gen_constants	deps/gen_constants.f90
subroutine clawpack46_set_capacity(mx,my,mbc,dx,dy, & area,mcapa,maux,aux) implicit none integer mbc, mx, my, maux, mcapa double precision dx, dy double precision aux(1-mbc:mx+mbc,1-mbc:my+mbc, maux) double precision area(-mbc:mx+mbc+1,-mbc:my+mbc+1) integer i,j double precision dxdy dxdy = dx*dy do j = 1-mbc,my+mbc do i = 1-mbc,mx+mbc aux(i,j,mcapa) = area(i,j)/dxdy enddo enddo end	src/solvers/fc2d_clawpack4.6/fortran_source/clawpack46_set_capacity.f
SUBROUTINE G0SSHD(SURFAS,ISTRTX,ISTOPX,NPTSX, & ISTRTY,ISTOPY,NPTSY) C C ------------------------------------------------ C ROUTINE NO. ( 367) VERSION (A9.1) 13:JAN:94 C ------------------------------------------------ C PARAMETER (ISZARR= 1200, JSZARR= 600) REAL SURFAS(NPTSX,NPTSY),XPOS(JSZARR),YPOS(JSZARR), & RDATA(1),XADDPT(3),YADDPT(3),SXPT(4),SYPT(4),SZPT(4) INTEGER IPTRS(JSZARR),IDATA(1) LOGICAL ERRON C COMMON /T0INTS/ XLINE1(2),YLINE1(2),XLINE2(2),YLINE2(2) COMMON /T0SAN1/ SINAZA,COSAZA,SINTLT,COSTLT COMMON /T0SAXE/ INDAXE,XAXORG,YAXORG,XAXDEL,YAXDEL COMMON /T0SCHN/ LSTFRE(ISZARR),IFPNTR(ISZARR),IBPNTR(ISZARR), & SXPOS(ISZARR),SYPOS(ISZARR),ISPNTR COMMON /T0SCOM/ XLEN,YLEN,SCALE,XSHIFT,YSHIFT,SURMIN,SURMAX COMMON /T0SDL1/ DELTXR,DELTYR,DELTZR,DELTXC,DELTYC,DELTZC, & VSCALE,ZSCALE,ITPBTM,IQDRNT COMMON /T0SIND/ ISURIN COMMON /T0SKOL/ HUESHD,JKOLS,KOLSTA COMMON /T0SLIT/ ALIGHT,BLIGHT,CLIGHT COMMON /T0SREF/ AMBINT,DIFFUS,SPECT COMMON /T3ERRS/ ERRON,NUMERR C DATA RDATA /0.0/ C C C INITIALISE THE CHAINED LIST C DO 100 ISET= 1,ISZARR LSTFRE(ISET)= 0 IFPNTR(ISET)= 0 IBPNTR(ISET)= 0 100 CONTINUE C LSTFRE(1)= 1 ISPNTR= 1 INDC= -1 IF (IQDRNT.EQ.1) THEN ISTRTA= ISTRTX ISTOPA= ISTOPX INCA= 1 ISTRTB= ISTRTY ISTOPB= ISTOPY SHPOS= MAX(MIN(SURFAS(ISTRTA,ISTRTB),SURMAX),SURMIN) INCB= 1 IDIR= 0 ELSE IF (IQDRNT.EQ.2) THEN ISTRTA= ISTOPY ISTOPA= ISTRTY INCA= -1 ISTRTB= ISTRTX ISTOPB= ISTOPX SHPOS= MAX(MIN(SURFAS(ISTRTB,ISTRTA),SURMAX),SURMIN) INCB= 1 IDIR= 1 ELSE IF (IQDRNT.EQ.3) THEN ISTRTA= ISTOPX ISTOPA= ISTRTX INCA= -1 ISTRTB= ISTOPY ISTOPB= ISTRTY SHPOS= MAX(MIN(SURFAS(ISTRTA,ISTRTB),SURMAX),SURMIN) INCB= -1 IDIR= 0 ELSE ISTRTA= ISTRTY ISTOPA= ISTOPY INCA= 1 ISTRTB= ISTOPX ISTOPB= ISTRTX SHPOS= MAX(MIN(SURFAS(ISTRTB,ISTRTA),SURMAX),SURMIN) INCB= -1 IDIR= 1 ENDIF C SXPOS(1)= XSHIFT SYPOS(1)= VSCALESHPOS+YSHIFT C DO 200 JJ= ISTRTB,ISTOPB-INCB,INCB INDC= INDC+1 INDC1= INDC+1 INDR= -1 IF (IDIR.EQ.0) THEN SHPOS1= MAX(MIN(SURFAS(ISTRTA,JJ),SURMAX),SURMIN) SHPOS2= MAX(MIN(SURFAS(ISTRTA,JJ+INCB),SURMAX),SURMIN) ELSE SHPOS1= MAX(MIN(SURFAS(JJ,ISTRTA),SURMAX),SURMIN) SHPOS2= MAX(MIN(SURFAS(JJ+INCB,ISTRTA),SURMAX),SURMIN) ENDIF C SXPOS1= INDCDELTXC+XSHIFT SYPOS1= INDCDELTYC+VSCALESHPOS1+YSHIFT SZPT(1)= INDCDELTZC-ZSCALESHPOS1 SXPOS2= INDC1DELTXC+XSHIFT SYPOS2= INDC1DELTYC+VSCALESHPOS2+YSHIFT SZPT(2)= INDC1DELTZC-ZSCALESHPOS2 C DO 200 II= ISTRTA,ISTOPA-INCA,INCA INDR= INDR+1 INDR1= INDR+1 IF (IDIR.EQ.0) THEN SHPOS3= MAX(MIN(SURFAS(II+INCA,JJ+INCB),SURMAX),SURMIN) SHPOS4= MAX(MIN(SURFAS(II+INCA,JJ),SURMAX),SURMIN) ELSE SHPOS3= MAX(MIN(SURFAS(JJ+INCB,II+INCA),SURMAX),SURMIN) SHPOS4= MAX(MIN(SURFAS(JJ,II+INCA),SURMAX),SURMIN) ENDIF C SXPOS3= INDR1DELTXR+INDC1DELTXC+XSHIFT SYPOS3= INDR1DELTYR+INDC1DELTYC+VSCALESHPOS3+YSHIFT SZPT(3)= INDR1DELTZR+INDC1DELTZC-ZSCALESHPOS3 SXPOS4= INDR1DELTXR+INDCDELTXC+XSHIFT SYPOS4= INDR1DELTYR+INDCDELTYC+VSCALESHPOS4+YSHIFT SZPT(4)= INDR1DELTZR+INDCDELTZC-ZSCALESHPOS4 C IF (ITPBTM.EQ.0) GO TO 13 IF (INDR1.EQ.1) CALL G0SADD(SXPOS2,SYPOS2) IF (INDC.EQ.0) CALL G0SADD(SXPOS4,SYPOS4) C SXPT(1)= SXPOS1 SXPT(2)= SXPOS2 SXPT(3)= SXPOS3 SXPT(4)= SXPOS4 SYPT(1)= SYPOS1 SYPT(2)= SYPOS2 SYPT(3)= SYPOS3 SYPT(4)= SYPOS4 C C ASSEMBLE THE POLYLINE DEFINING THE TOP C OF THE VISIBLE REGION. C CALL G0SCPT(SXPOS2,IFSTPT) NXTPOI= ISPNTR IF (IFSTPT.NE.0) NXTPOI= IFPNTR(IFSTPT) C XPOS(1)= SXPOS(IFSTPT) YPOS(1)= SYPOS(IFSTPT) IPTRS(1)= IFSTPT XPOS(2)= SXPOS(NXTPOI) YPOS(2)= SYPOS(NXTPOI) IPTRS(2)= NXTPOI LSTSIZ= 2 INDEX3= 1 IF (XPOS(2).LE.SXPOS3) INDEX3= 2 C CALL G0SCPT(SXPOS4,LSTPNT) IF (SXPOS4.GT.SXPOS(LSTPNT)) LSTPNT= IFPNTR(LSTPNT) 1 IF (NXTPOI.EQ.LSTPNT) GO TO 2 C LSTSIZ= LSTSIZ+1 IF (LSTSIZ.GT.JSZARR) GO TO 901 C NXTPOI= IFPNTR(NXTPOI) XPOS(LSTSIZ)= SXPOS(NXTPOI) IF (XPOS(LSTSIZ).LE.SXPOS3) INDEX3= LSTSIZ C YPOS(LSTSIZ)= SYPOS(NXTPOI) IPTRS(LSTSIZ)= NXTPOI GO TO 1 C 2 INDEX2= INDEX3 IF (XPOS(INDEX3).LT.SXPOS3) INDEX2= INDEX2+1 C LFLAG= 0 C C CHECK THE VISIBILITY OF THE LINE END POINTS. C SET 'IVIS' TO -1 IF THE POINT IS INVISIBLE, C 0 FOR COINCIDENCE AND C 1 IF THE POINT IS VISIBLE. C C IVIS AND IVIS1 CAN EACH TAKE ONE OF THREE VALUES. C THEREFORE THERE ARE NINE COMBINATIONS OR CASES. C C CASE IVIS IVIS1 IVIS+IVIS1 C C 1 -1 -1 -2 C 2 -1 0 -1 C 3 -1 1 0 C 4 0 -1 -1 C 5 0 0 0 C 6 0 1 1 C 7 1 -1 0 C 8 1 0 1 C 9 1 1 2 C YVAL= (SXPOS2-XPOS(1))(YPOS(2)-YPOS(1))/ & (XPOS(2)-XPOS(1))+YPOS(1) IVIS2= 0 IF (SYPOS2.GT.YVAL) IVIS2= 1 IF (SYPOS2.LT.YVAL) IVIS2= -1 C YVAL= (SXPOS3-XPOS(INDEX3))(YPOS(INDEX3+1)-YPOS(INDEX3))/ & (XPOS(INDEX3+1)-XPOS(INDEX3))+YPOS(INDEX3) IVIS3= 0 IF (SYPOS3.GT.YVAL) IVIS3= 1 IF (SYPOS3.LT.YVAL) IVIS3= -1 C YVAL= (SXPOS4-XPOS(LSTSIZ-1))(YPOS(LSTSIZ)-YPOS(LSTSIZ-1))/ & (XPOS(LSTSIZ)-XPOS(LSTSIZ-1))+YPOS(LSTSIZ-1) IVIS4= 0 IF (SYPOS4.GT.YVAL) IVIS4= 1 IF (SYPOS4.LT.YVAL) IVIS4= -1 C C PROCESS THE FIRST LINE SECTION. C XINT1= SXPOS2 YINT1= SYPOS2 INDADD= 0 INDST= 1 IVISL= IVIS2 IVIS= -IVIS2 IND= 1 3 IND= IND+1 IF (IND.GT.INDEX2) GO TO 7 C YVAL= (XPOS(IND)-SXPOS2)(SYPOS3-SYPOS2)/ & (SXPOS3-SXPOS2)+SYPOS2 IVIS1= 0 IF (YPOS(IND).GT.YVAL) IVIS1= 1 IF (YPOS(IND).LT.YVAL) IVIS1= -1 IF (IND.EQ.INDEX2) IVIS1= -IVIS3 IF (IVIS.EQ.0) GO TO 6 IF (IVIS+IVIS1.NE.0) GO TO 4 C C CASES 3 AND 7 C C FIND INTERSECTION ON LINE IND-1 TO IND C XLINE1(1)= XINT1 YLINE1(1)= YINT1 XLINE1(2)= SXPOS3 YLINE1(2)= SYPOS3 XLINE2(1)= XPOS(IND-1) YLINE2(1)= YPOS(IND-1) XLINE2(2)= XPOS(IND) YLINE2(2)= YPOS(IND) CALL G0INTR(ICODE,XINT2,YINT2) INDADD= INDADD+1 XADDPT(INDADD)= XINT2 YADDPT(INDADD)= YINT2 XINT1= XINT2 YINT1= YINT2 IF (IVIS.NE.1) THEN C C CASE 3 C CALL G0SHAD(XPOS,YPOS,INDST,IND-1,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 CALL G0SDEL(IPTRS(IND-1)) ELSE C C CASE7 C INDST= IND ENDIF C GO TO 5 C C CASES 1, 2, 8 AND 9 C 4 IF (IVIS.LT.0.AND.XPOS(IND).LE.SXPOS3) C C CASES 1 AND 2 C & CALL G0SDEL(IPTRS(IND-1)) IF (IVIS1.NE.0) GO TO 6 C C CASES 2 AND 8 C IF (IVIS.NE.1) THEN C C CASE 2 C CALL G0SHAD(XPOS,YPOS,INDST,IND,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 ENDIF C C CASES 2 AND 8 C INDST= IND XINT1= XPOS(IND) YINT1= YPOS(IND) C C CASES 2, 3, 7 AND 8 C 5 CALL G0SADD(XINT1,YINT1) C C ALL CASES C 6 IVISL= -IVIS1 IVISAV= IVIS IVIS= IVIS1 GO TO 3 C 7 IF (IVISL+IVIS3.GT.0) THEN IF (IVISAV.GE.0.AND.INDEX2.GT.INDEX3) LFLAG= 1 C INDADD= INDADD+1 XADDPT(INDADD)= SXPOS3 YADDPT(INDADD)= SYPOS3 CALL G0SADD(SXPOS3,SYPOS3) ENDIF C C PROCESS THE SECOND LINE SECTION. C XINT1= SXPOS3 YINT1= SYPOS3 IVISL= IVIS3 IVIS= -IVIS3 IND= INDEX3 8 IND= IND+1 IF (IND.GT.LSTSIZ) GO TO 12 C YVAL= (XPOS(IND)-SXPOS3)(SYPOS4-SYPOS3)/ & (SXPOS4-SXPOS3)+SYPOS3 IVIS1= 0 IF (YPOS(IND).GT.YVAL) IVIS1= 1 IF (YPOS(IND).LT.YVAL) IVIS1= -1 IF (IND.EQ.LSTSIZ) IVIS1= -IVIS4 IF (IVIS.EQ.0) GO TO 11 IF (IVIS+IVIS1.NE.0) GO TO 9 C C CASES 3 AND 7 C C FIND INTERSECTION ON LINE IND-1 TO IND C XLINE1(1)= XINT1 YLINE1(1)= YINT1 XLINE1(2)= SXPOS4 YLINE1(2)= SYPOS4 XLINE2(1)= XPOS(IND-1) YLINE2(1)= YPOS(IND-1) XLINE2(2)= XPOS(IND) YLINE2(2)= YPOS(IND) CALL G0INTR(ICODE,XINT2,YINT2) INDADD= INDADD+1 XADDPT(INDADD)= XINT2 YADDPT(INDADD)= YINT2 XINT1= XINT2 YINT1= YINT2 IF (IVIS.NE.1) THEN C C CASE 3 C CALL G0SHAD(XPOS,YPOS,INDST,IND-1,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 IF (LFLAG.EQ.0) & CALL G0SDEL(IPTRS(IND-1)) C LFLAG= 0 ELSE C C CASE7 C INDST= IND ENDIF C GO TO 10 C C CASES 1, 2, 8 AND 9 C 9 IF (IVIS.LT.0.AND.LFLAG.EQ.0) C C CASES 1 AND 2 C & CALL G0SDEL(IPTRS(IND-1)) C LFLAG= 0 IF (IVIS1.NE.0) GO TO 11 C C CASES 2 AND 8 C IF (IVIS.NE.1) THEN C C CASE 2 C CALL G0SHAD(XPOS,YPOS,INDST,IND,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 ENDIF C C CASES 2 AND 8 C INDST= IND XINT1= XPOS(IND) YINT1= YPOS(IND) C C CASES 2, 3, 7 AND 8 C 10 CALL G0SADD(XINT1,YINT1) C C ALL CASES C 11 IVISL= -IVIS1 IVIS= IVIS1 GO TO 8 C 12 IF (IVISL.EQ.0) CALL G0SDEL(IPTRS(LSTSIZ)) C GO TO 14 C C FILL THE BASE. C 13 IF (INDC.EQ.0) THEN YBAS1= INDRDELTYR+VSCALESURMIN+YSHIFT YBAS4= YBAS1+DELTYR IDATA(1)= 0 CALL G3LINK(5,13,-1,IDATA,RDATA) PRODNL= SINAZAALIGHT-COSAZASINTLTBLIGHT- & COSAZACOSTLTCLIGHT PROD= AMBINT+DIFFUSMIN(MAX(PRODNL,0.0),1.0) IDATA(1)= NINT(PRODJKOLS)+KOLSTA CALL G3LINK(5,3,-1,IDATA,RDATA) CALL POSITN(SXPOS1,SYPOS1) CALL JOIN(SXPOS1,YBAS1) CALL JOIN(SXPOS4,YBAS4) CALL JOIN(SXPOS4,SYPOS4) CALL JOIN(SXPOS1,SYPOS1) CALL G3LINK(5,4,0,IDATA,RDATA) ENDIF C IF (INDR.EQ.0) THEN YBAS1= INDCDELTYC+VSCALESURMIN+YSHIFT YBAS2= YBAS1+DELTYC IDATA(1)= 0 CALL G3LINK(5,13,-1,IDATA,RDATA) PRODNL= -COSAZAALIGHT-SINAZASINTLTBLIGHT- & SINAZACOSTLTCLIGHT PROD= AMBINT+DIFFUSMIN(MAX(PRODNL,0.0),1.0) IDATA(1)= NINT(PRODJKOLS)+KOLSTA CALL G3LINK(5,3,-1,IDATA,RDATA) CALL POSITN(SXPOS1,SYPOS1) CALL JOIN(SXPOS1,YBAS1) CALL JOIN(SXPOS2,YBAS2) CALL JOIN(SXPOS2,SYPOS2) CALL JOIN(SXPOS1,SYPOS1) CALL G3LINK(5,4,0,IDATA,RDATA) ENDIF C 14 SXPOS1= SXPOS4 SYPOS1= SYPOS4 SZPT(1)= SZPT(4) SXPOS2= SXPOS3 SYPOS2= SYPOS3 SZPT(2)= SZPT(3) 200 CONTINUE C IF (ITPBTM.EQ.0) RETURN C YEND1= VSCALESURMIN+YSHIFT XEND2= INDC1DELTXC+XSHIFT YEND2= INDC1DELTYC+VSCALESURMIN+YSHIFT XEND4= INDR1DELTXR+XSHIFT YEND4= INDR1DELTYR+VSCALE*SURMIN+YSHIFT IF (INDAXE.NE.0) THEN C C DRAW BASE LINES. C CALL POSITN(XEND2,YEND2) CALL JOIN(XSHIFT,YEND1) CALL JOIN(XEND4,YEND4) CALL G0SAX1(ISTRTX,ISTOPX,ISTRTY,ISTOPY, & XEND2,XEND4,YEND1,YEND2,YEND4) ENDIF C IF (ISURIN.NE.0) CALL G0SIND(XEND2,XEND4,YEND2,YEND4) C RETURN C 901 NUMERR= 41 IF (ERRON) CALL G0ERMS STOP END	src/lib/g0sshd.f
Robbens Department Store is the real deal: it is a time warp to a clothing stores department store of the 1950’s. The building ceiling drops from front to back, about 15’ where you enter to barely 7’ in the back of the store, creating an odd cavelike effect. You are likely to be greeted and served by Robby Robben when you enter. The store was originally owned and operated by his mother, Mildred Robben, until her retirement in 2000. It is packed – stacked to the ceiling, merchandise hanging from walls, slumping display shelves with heaps of shirts, hats, pants. There are odd countryesque wall hangings (“The worst day fishin’ is better than the best day workin’), kids’ toys, belt buckles, all scattered somewhat randomly around the shop. Some of the merchandise looks as though it has been there since the 1950’s. The main inventory is western clothing and work clothes. Robben’s carries a full line of genuine Stetson hats, as well as other cowboy hats and boots; Ben Davis work clothes in all sizes; shoes and work boots made in America; Levi trousers and Arrow dress shirts. They will specialorder sizes not in stock. Robben’s rents tuxedos. Cub and Boy Scouting scout supplies are available.	lab/davisWiki/Robben%27s_Department_Store.f
SUBROUTINE PCC_SIN(NR,ICORE,AC,BC,CC,R,CDC) ccccccccccccccccccccccccccccccccccccccccccc cccccc Replace the original full core charge CDC/r inside r(icore), cccccc with a form acsin(bcr), match the original charge at r(icore) cccccc for its value and slop. The purpose is to generate a smoother cccccc core charge to be used in plane wave calculation cccccc cccccc Lin-Wang Wang, Feb. 28, 2001 cccccc Actually, it should be called: PCC_SIN(xxxx) cccccc cccccc ccccccccc This subroutine returns a pseudo core of ccccccccc cdc(r)=acrsin(bcr) inside r(icore) ccccccccc instead of the original ccccccccc cdc(r)=r^2 exp(ac+bcr^2+ccr^4) inside r(icore) ccccccccc ccccccccc This new pseudo-core is softer than ccccccccc the original exp. core, and uses smaller Ecut in ccccccccc PEtot calculation. For PEtot calculation, we suggest ccccccccc this pseudo-core for "pe" calculation (for no GGA pseudopotential). ccccccccc Lin-Wang Wang, Feb. 28, 2001 IMPLICIT DOUBLE PRECISION (A-H,O-Z) PARAMETER (NN = 5) DIMENSION R(NR),CDC(NR), . DR_K(-NN:NN),DDR_K(-NN:NN), . CDC_SCA(ICORE-NN:ICORE+NN) tpfive=2.5d0 pi=4datan(1.d0) cccccccccccccccccccccccccccccccccccccccccccc cdcp = (cdc(icore+1)-cdc(icore))/(r(icore+1)-r(icore)) tanb = cdc(icore)/(r(icore)cdcp-cdc(icore)) rbold = tpfive do 500 i = 1, 50 rbnew = pi + datan(tanbrbold) if (abs(rbnew-rbold) .lt. .00001D0) then bc = rbnew/r(icore) ac = cdc(icore)/(r(icore)sin(rbnew)) do 490 j = 1, icore cdc(j) = acr(j)sin(bcr(j)) 490 continue write(,) "r(icore),ac,bc", r(icore), ac, bc write(,) "************" write(,) "*** USING sin(bcr) for core charge *" write(,) "************" c go to 530 c else rbold = rbnew end if 500 continue write(,) "SHOULD NEVER BE HERE, fail to find core charge" Write(,*) "inside PCC_EXP.f, stop" stop 530 continue cc=1.d0 return end	PSEUDO/source/pcc_sin.f
!********************************************************************* ! Integrated Water Flow Model (IWFM) ! Copyright (C) 2005-2021 ! State of California, Department of Water Resources ! ! This program is free software; you can redistribute it and/or ! modify it under the terms of the GNU General Public License ! as published by the Free Software Foundation; either version 2 ! of the License, or (at your option) any later version. ! ! This program is distributed in the hope that it will be useful, ! but WITHOUT ANY WARRANTY; without even the implied warranty of ! MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the ! GNU General Public License for more details. ! (http://www.gnu.org/copyleft/gpl.html) ! ! You should have received a copy of the GNU General Public License ! along with this program; if not, write to the Free Software ! Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. ! ! For tecnical support, e-mail: [email protected] !******************************************************************* MODULE Class_StrmGWConnector_v40 USE MessageLogger , ONLY: SetLastMessage , & LogMessage , & MessageArray , & iWarn , & iFatal USE IOInterface , ONLY: GenericFileType USE GeneralUtilities , ONLY: StripTextUntilCharacter , & IntToText , & CleanSpecialCharacters , & ConvertID_To_Index USE Package_Discretization USE Package_Misc , ONLY: AbstractFunctionType , & f_iStrmComp , & f_iGWComp , & f_rSmoothMaxP USE Class_BaseStrmGWConnector , ONLY: BaseStrmGWConnectorType , & iDisconnectAtTopOfBed , & iDisconnectAtBottomOfBed USE Package_Matrix , ONLY: MatrixType IMPLICIT NONE ! ************************************************************** ! ************************************************************** ! ************************************************************** ! * ! * VARIABLE DEFINITIONS ! * ! **************************************************************** ! ************************************************************** ! **************************************************************** ! ------------------------------------------------------------- ! --- PUBLIC ENTITIES ! ------------------------------------------------------------- PRIVATE PUBLIC :: StrmGWConnector_v40_Type ! ------------------------------------------------------------- ! --- STREAM-GW CONNECTOR TYPE ! ------------------------------------------------------------- TYPE,EXTENDS(BaseStrmGWConnectorType) :: StrmGWConnector_v40_Type PRIVATE CONTAINS PROCEDURE,PASS :: Simulate => StrmGWConnector_v40_Simulate PROCEDURE,PASS :: CompileConductance => StrmGWConnector_v40_CompileConductance END TYPE StrmGWConnector_v40_Type ! ------------------------------------------------------------- ! --- MISC. ENTITIES ! ------------------------------------------------------------- INTEGER,PARAMETER :: ModNameLen = 27 CHARACTER(LEN=ModNameLen),PARAMETER :: ModName = 'Class_StrmGWConnector_v40::' CONTAINS ! ------------------------------------------------------------- ! --- COMPILE CONDUCTANCE FOR STREAM-GW CONNECTOR ! ------------------------------------------------------------- SUBROUTINE StrmGWConnector_v40_CompileConductance(Connector,InFile,AppGrid,Stratigraphy,NStrmNodes,iStrmNodeIDs,UpstrmNodes,DownstrmNodes,BottomElevs,iStat) CLASS(StrmGWConnector_v40_Type) :: Connector TYPE(GenericFileType) :: InFile TYPE(AppGridType),INTENT(IN) :: AppGrid TYPE(StratigraphyType),INTENT(IN) :: Stratigraphy INTEGER,INTENT(IN) :: NStrmNodes,iStrmNodeIDs(NStrmNodes),UpstrmNodes(:),DownstrmNodes(:) REAL(8),INTENT(IN) :: BottomElevs(:) INTEGER,INTENT(OUT) :: iStat !Local variables CHARACTER(LEN=ModNameLen+38) :: ThisProcedure = ModName // 'StrmGWConnector_v40_CompileConductance' INTEGER :: indxReach,indxNode,iGWNode,iGWUpstrmNode,iUpstrmNode, & iDownstrmNode,iNode,ErrorCode,iLayer,iStrmNodeID, & iGWNodeID,iInteractionType REAL(8) :: B_DISTANCE,F_DISTANCE,CA,CB,FACTK,FACTL, & DummyArray(NStrmNodes,4) REAL(8),DIMENSION(NStrmNodes) :: BedThick,WetPerimeter,Conductivity CHARACTER :: ALine500,TimeUnitConductance6 LOGICAL :: lProcessed(NStrmNodes) INTEGER,ALLOCATABLE :: iGWNodes(:) !Initialize iStat = 0 lProcessed = .FALSE. CALL Connector%GetAllGWNodes(iGWNodes) !Read data CALL InFile%ReadData(FACTK,iStat) ; IF (iStat .EQ. -1) RETURN CALL InFile%ReadData(ALine,iStat) ; IF (iStat .EQ. -1) RETURN CALL CleanSpecialCharacters(ALine) TimeUnitConductance = ADJUSTL(StripTextUntilCharacter(ALine,'/')) CALL InFile%ReadData(FACTL,iStat) ; IF (iStat .EQ. -1) RETURN CALL InFile%ReadData(DummyArray,iStat) ; IF (iStat .EQ. -1) RETURN !Assumption for stream-aquifer disconnection CALL InFile%ReadData(iInteractionType,iStat) IF (iStat .EQ. 0) THEN CALL Connector%SetInteractionType(iInteractionType,iStat) IF (iStat .EQ. -1) RETURN ELSE iStat = 0 END IF DO indxNode=1,NStrmNodes iStrmNodeID = INT(DummyArray(indxNode,1)) CALL ConvertID_To_Index(iStrmNodeID,iStrmNodeIDs,iNode) IF (iNode .EQ. 0) THEN CALL SetLastMessage('Stream node '//TRIM(IntToText(iStrmNodeID))//' listed for stream bed parameters is not in the model!',iFatal,ThisProcedure) iStat = -1 RETURN END IF IF (lProcessed(iNode)) THEN CALL SetLastMessage('Stream bed parameters for stream node '//TRIM(IntToText(iStrmNodeID))//' are defined more than once!',iFatal,ThisProcedure) iStat = -1 RETURN END IF lProcessed(iNode) = .TRUE. Conductivity(iNode) = DummyArray(indxNode,2)FACTK BedThick(iNode) = DummyArray(indxNode,3)FACTL WetPerimeter(iNode) = DummyArray(indxNode,4)FACTL END DO !Compute conductance DO indxReach=1,SIZE(UpstrmNodes) iUpstrmNode = UpstrmNodes(indxReach) iDownstrmNode = DownstrmNodes(indxReach) B_DISTANCE = 0.0 DO indxNode=iUpstrmNode+1,iDownstrmNode iGWUpstrmNode = iGWNodes(indxNode-1) iGWNode = iGWNodes(indxNode) iLayer = Connector%iLayer(indxNode) IF (Connector%iInteractionType .EQ. iDisconnectAtBottomOfBed) THEN IF (BottomElevs(indxNode)-BedThick(indxNode) .LT. Stratigraphy%BottomElev(iGWNode,iLayer)) THEN iStrmNodeID = iStrmNodeIDs(indxNode) iGWNodeID = AppGrid%AppNode(iGWNode)%ID BedThick(indxNode) = BottomElevs(indxNode) - Stratigraphy%BottomElev(iGWNode,iLayer) MessageArray(1) = 'Stream bed thickness at stream node ' // TRIM(IntToText(iStrmNodeID)) // ' and GW node '// TRIM(IntToText(iGWNodeID)) // ' penetrates into second active aquifer layer!' MessageArray(2) = 'It is adjusted to penetrate only into the top active layer.' CALL LogMessage(MessageArray(1:2),iWarn,ThisProcedure) END IF END IF CA = AppGrid%X(iGWUpstrmNode) - AppGrid%X(iGWNode) CB = AppGrid%Y(iGWUpstrmNode) - AppGrid%Y(iGWNode) F_DISTANCE = SQRT(CACA + CBCB)/2d0 Conductivity(indxNode-1) = Conductivity(indxNode-1)WetPerimeter(indxNode-1)(F_DISTANCE+B_DISTANCE)/BedThick(indxNode-1) B_DISTANCE = F_DISTANCE END DO Conductivity(iDownstrmNode) = Conductivity(iDownstrmNode)WetPerimeter(iDownstrmNode)B_DISTANCE/BedThick(iDownstrmNode) END DO !Allocate memory ALLOCATE (Connector%Conductance(NStrmNodes) , Connector%rBedThickness(NStrmNodes) , Connector%StrmGWFlow(NStrmNodes) , STAT=ErrorCode) IF (ErrorCode .NE. 0) THEN CALL SetLastMessage('Error allocating memory for stream-gw connection data!',iFatal,ThisProcedure) iStat = -1 RETURN END IF !Store information Connector%Conductance = Conductivity Connector%rBedThickness = BedThick Connector%TimeUnitConductance = TimeUnitConductance Connector%StrmGWFlow = 0.0 IF (Connector%iInteractionType .EQ. iDisconnectAtBottomOfBed) THEN Connector%rDisconnectElev = BottomElevs - Connector%rBedThickness ELSE Connector%rDisconnectElev = BottomElevs END IF !Clear memory DEALLOCATE (iGWNodes , STAT=ErrorCode) END SUBROUTINE StrmGWConnector_v40_CompileConductance ! ------------------------------------------------------------- ! --- SIMULATE STREAM-GW INTERACTION ! ------------------------------------------------------------- SUBROUTINE StrmGWConnector_v40_Simulate(Connector,iNNodes,rGWHeads,rStrmHeads,rAvailableFlows,Matrix,WetPerimeterFunction,rMaxElevs) CLASS(StrmGWConnector_v40_Type) :: Connector INTEGER,INTENT(IN) :: iNNodes REAL(8),INTENT(IN) :: rGWHeads(:),rStrmHeads(:),rAvailableFlows(:) TYPE(MatrixType) :: Matrix CLASS(AbstractFunctionType),OPTIONAL,INTENT(IN) :: WetPerimeterFunction(:) !Not used in this version REAL(8),OPTIONAL,INTENT(IN) :: rMaxElevs(:) !Not used in this version !Local variables INTEGER :: iGWNode,iNodes_Connect(2),iNodes_RHS(2),indxStrm REAL(8) :: Conductance,rUpdateCOEFF(2),rUpdateCOEFF_Keep(2),rUpdateRHS(2),rDiff_GW,rGWHead, & rDiffGWSQRT,rStrmGWFlow,rStrmGWFlowAdj,rStrmGWFlowAdjSQRT,rDStrmGWFlowAdj,rFractionForGW, & rNodeAvailableFlow INTEGER,PARAMETER :: iCompIDs(2) = [f_iStrmComp , f_iGWComp] !Update matrix equations DO indxStrm=1,SIZE(rStrmHeads) !Corresponding GW node and conductance iGWNode = (Connector%iLayer(indxStrm)-1) iNNodes + Connector%iGWNode(indxStrm) Conductance = Connector%Conductance(indxStrm) rFractionForGW = Connector%rFractionForGW(indxStrm) !Head differences rGWHead = rGWHeads(indxStrm) rDiff_GW = rGWHead - Connector%rDisconnectElev(indxStrm) rDiffGWSQRT = SQRT(rDiff_GWrDiff_GW + f_rSmoothMaxP) !Available flow for node rNodeAvailableFlow = rAvailableFlows(indxStrm) !Calculate stream-gw interaction and update of Jacobian !-------------------------------------------- rStrmGWFlow = Conductance (rStrmHeads(indxStrm) - MAX(rGWHead,Connector%rDisconnectElev(indxStrm))) !Stream is gaining; no need to worry about drying stream (i.e. stream-gw flow is not a function of upstream flows) IF (rStrmGWFlow .LT. 0.0) THEN Connector%StrmGWFlow(indxStrm) = rStrmGWFlow iNodes_Connect(1) = indxStrm iNodes_Connect(2) = iGWNode !Update Jacobian - entries for stream node rUpdateCOEFF_Keep(1) = Conductance rUpdateCOEFF_Keep(2) = -0.5d0 * Conductance * (1d0+rDiff_GW/rDiffGWSQRT) rUpdateCOEFF = rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iStrmComp,indxStrm,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Update Jacobian - entries for groundwater node rUpdateCOEFF = -rFractionForGW * rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iGWComp,iGWNode,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Stream is losing; we need to limit stream loss to available flow ELSE rStrmGWFlowAdj = rNodeAvailableFlow - rStrmGWFlow rStrmGWFlowAdjSQRT = SQRT(rStrmGWFlowAdjrStrmGWFlowAdj + f_rSmoothMaxP) rDStrmGWFlowAdj = 0.5d0 (1d0 + rStrmGWFlowAdj / rStrmGWFlowAdjSQRT) iNodes_Connect(1) = indxStrm iNodes_Connect(2) = iGWNode !Update Jacobian - entries for stream node rUpdateCOEFF_Keep(1) = Conductance * rDStrmGWFlowAdj rUpdateCOEFF_Keep(2) = -0.5d0 * Conductance * (1d0+rDiff_GW/rDiffGWSQRT) * rDStrmGWFlowAdj rUpdateCOEFF = rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iStrmComp,indxStrm,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Update Jacobian - entries for groundwater node rUpdateCOEFF = -rFractionForGW * rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iGWComp,iGWNode,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Store flow exchange Connector%StrmGWFlow(indxStrm) = MIN(rNodeAvailableFlow , rStrmGWFlow) END IF !Update RHS iNodes_RHS(1) = indxStrm iNodes_RHS(2) = iGWNode rUpdateRHS(1) = Connector%StrmGWFlow(indxStrm) rUpdateRHS(2) = -Connector%StrmGWFlow(indxStrm) * rFractionForGW CALL Matrix%UpdateRHS(iCompIDs,iNodes_RHS,rUpdateRHS) END DO END SUBROUTINE StrmGWConnector_v40_Simulate END MODULE	code/SourceCode/Package_ComponentConnectors/StrmGWConnector/Class_StrmGWConnector_v40.f90
FUNCTION dayear(dd,mm,yyyy) ! IMPLICIT NONE ! ! Function arguments ! INTEGER :: dd,mm,yyyy INTEGER :: dayear ! ! Local variables ! INTEGER :: difdat ! ! + + + purpose + + + ! given a date in dd/mm/yyyy format, ! dayear will return the number of days ! from the first of that year. ! ! + + + keywords + + + ! date, utility ! ! + + + argument declarations + + + ! ! + + + argument definitions + + + ! dayear - returns the number of days from the first of that year ! dd - day ! mm - month ! yyyy - year ! ! + + + local variable definitions + + + ! difdat - the number of days between two dates. a function. This ! variable holds the value returned by the Diffdat function. ! Debe assumed this definition ! + + + function declarations + + + ! ! + + + end specifications + + + ! ! get the difference in days + 1 ! dayear = difdat(1,1,yyyy,dd,mm,yyyy) + 1 ! END FUNCTION dayear	Project Documents/Source Code Original/Dayear.f90
! { dg-do compile } ! { dg-options "-Wunused-dummy-argument -Wunused-parameter" } ! PR 48847 - we used to generate a warning for g(), and none for h() program main contains function f(g,h) interface real function g() end function g end interface interface real function h() ! { dg-warning "Unused dummy argument" } end function h end interface real :: f f = g() end function f end program main	validation_tests/llvm/f18/gfortran.dg/warn_unused_dummy_argument_3.f90
! ! Parallel Sparse BLAS version 3.5 ! (C) Copyright 2006-2018 ! Salvatore Filippone ! Alfredo Buttari ! ! Redistribution and use in source and binary forms, with or without ! modification, are permitted provided that the following conditions ! are met: ! 1. Redistributions of source code must retain the above copyright ! notice, this list of conditions and the following disclaimer. ! 2. Redistributions in binary form must reproduce the above copyright ! notice, this list of conditions, and the following disclaimer in the ! documentation and/or other materials provided with the distribution. ! 3. The name of the PSBLAS group or the names of its contributors may ! not be used to endorse or promote products derived from this ! software without specific written permission. ! ! THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS ! ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED ! TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR ! PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE PSBLAS GROUP OR ITS CONTRIBUTORS ! BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR ! CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF ! SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS ! INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN ! CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ! ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE ! POSSIBILITY OF SUCH DAMAGE. ! ! ! ! ! File: psi_i_crea_index.f90 ! ! Subroutine: psb_crea_index ! Converts a list of data exchanges from build format to assembled format. ! See psi_desc_index for a description of the formats. ! Works by first finding a suitable ordering for the data exchanges, ! then doing the actual conversion. ! ! Arguments: ! desc_a - type(psb_desc_type) The descriptor; in this context only the index ! mapping parts are used. ! index_in(:) - integer The index list, build format ! index_out(:) - integer(psb_ipk_), allocatable The index list, assembled format ! nxch - integer The number of data exchanges on the calling process ! nsnd - integer Total send buffer size on the calling process ! nrcv - integer Total receive buffer size on the calling process ! ! subroutine psi_i_crea_index(desc_a,index_in,index_out,nxch,nsnd,nrcv,info) use psb_realloc_mod use psb_desc_mod use psb_error_mod use psb_penv_mod use psb_timers_mod use psi_mod, psb_protect_name => psi_i_crea_index implicit none type(psb_desc_type), intent(in) :: desc_a integer(psb_ipk_), intent(out) :: info,nxch,nsnd,nrcv integer(psb_ipk_), intent(in) :: index_in(:) integer(psb_ipk_), allocatable, intent(inout) :: index_out(:) ! ....local scalars... type(psb_ctxt_type) :: ctxt integer(psb_ipk_) :: me, np, mode, err_act, dl_lda, ldl ! ...parameters... integer(psb_ipk_), allocatable :: length_dl(:), loc_dl(:),& & c_dep_list(:), dl_ptr(:) integer(psb_ipk_) :: dlmax, dlavg integer(psb_ipk_),parameter :: root=psb_root_,no_comm=-1 integer(psb_ipk_) :: debug_level, debug_unit character(len=20) :: name logical, parameter :: do_timings=.false., shuffle_dep_list=.false. integer(psb_ipk_), save :: idx_phase1=-1, idx_phase2=-1, idx_phase3=-1 integer(psb_ipk_), save :: idx_phase21=-1, idx_phase22=-1, idx_phase13=-1 info = psb_success_ name='psi_crea_index' call psb_erractionsave(err_act) debug_unit = psb_get_debug_unit() debug_level = psb_get_debug_level() ctxt = desc_a%get_ctxt() call psb_info(ctxt,me,np) if (np == -1) then info = psb_err_context_error_ call psb_errpush(info,name) goto 9999 endif if ((do_timings).and.(idx_phase1==-1)) & & idx_phase1 = psb_get_timer_idx("PSI_CREA_INDEX: phase1 ") if ((do_timings).and.(idx_phase2==-1)) & & idx_phase2 = psb_get_timer_idx("PSI_CREA_INDEX: phase2") if ((do_timings).and.(idx_phase3==-1)) & & idx_phase3 = psb_get_timer_idx("PSI_CREA_INDEX: phase3") if ((do_timings).and.(idx_phase21==-1)) & & idx_phase21 = psb_get_timer_idx("PSI_CREA_INDEX: phase21 ") if ((do_timings).and.(idx_phase22==-1)) & & idx_phase22 = psb_get_timer_idx("PSI_CREA_INDEX: phase22") !!$ if ((do_timings).and.(idx_phase13==-1)) & !!$ & idx_phase13 = psb_get_timer_idx("PSI_CREA_INDEX: phase13") ! ...extract dependence list (ordered list of identifer process ! which every process must communcate with... if (debug_level >= psb_debug_inner_) & & write(debug_unit,) me,' ',trim(name),': calling extract_loc_dl' mode = 1 if (do_timings) call psb_tic(idx_phase1) call psi_extract_loc_dl(ctxt,& & desc_a%is_bld(), desc_a%is_upd(),& & index_in, loc_dl,length_dl,info) dlmax = maxval(length_dl(:)) dlavg = (sum(length_dl(:))+np-1)/np if (do_timings) call psb_toc(idx_phase1) if (do_timings) call psb_tic(idx_phase2) if (choose_sorting(dlmax,dlavg,np)) then if (do_timings) call psb_tic(idx_phase21) call psi_bld_glb_dep_list(ctxt,& & loc_dl,length_dl,c_dep_list,dl_ptr,info) if (info /= 0) then write(0,) me,trim(name),' From bld_glb_list ',info end if if (do_timings) call psb_toc(idx_phase21) if (do_timings) call psb_tic(idx_phase22) call psi_sort_dl(dl_ptr,c_dep_list,length_dl,ctxt,info) if (info /= 0) then write(0,) me,trim(name),' From sort_dl ',info end if ldl = length_dl(me) loc_dl = c_dep_list(dl_ptr(me):dl_ptr(me)+ldl-1) if (do_timings) call psb_toc(idx_phase22) else ! Do nothing ldl = length_dl(me) loc_dl = loc_dl(1:ldl) if (shuffle_dep_list) then ! ! Apply a random shuffle to the dependency list ! should improve the behaviour ! block ! Algorithm 3.4.2P from TAOCP vol 2. integer(psb_ipk_) :: tmp integer :: j,k real :: u do j=ldl,2,-1 call random_number(u) k = min(j,floor(ju)+1) tmp = loc_dl(k) loc_dl(k) = loc_dl(j) loc_dl(j) = tmp end do end block end if end if if (do_timings) call psb_toc(idx_phase2) if (do_timings) call psb_tic(idx_phase3) if(debug_level >= psb_debug_inner_)& & write(debug_unit,) me,' ',trim(name),': calling psi_desc_index',ldl,':',loc_dl(1:ldl) ! Do the actual format conversion. if (dlmax == 0) then ! There is a sufficiently large number of cases ! where the initial exchange list is empty that ! it's worthwhile to take a shortcut. call psb_realloc(ione,index_out,info) index_out(1) = -1 else call psi_desc_index(desc_a,index_in,loc_dl,ldl,nsnd,nrcv,index_out,info) endif if(debug_level >= psb_debug_inner_) & & write(debug_unit,) me,' ',trim(name),': out of psi_desc_index',& & size(index_out) nxch = ldl if(info /= psb_success_) then call psb_errpush(psb_err_from_subroutine_,name,a_err='psi_desc_index') goto 9999 end if if (do_timings) call psb_toc(idx_phase3) if (allocated(length_dl)) deallocate(length_dl,stat=info) if (info /= 0) then info = psb_err_alloc_dealloc_ goto 9999 end if if(debug_level >= psb_debug_inner_) & & write(debug_unit,) me,' ',trim(name),': done' call psb_erractionrestore(err_act) return 9999 call psb_error_handler(ctxt,err_act) return contains function choose_sorting(dlmax,dlavg,np) result(val) implicit none integer(psb_ipk_), intent(in) :: dlmax,dlavg,np logical :: val val = .not.(((dlmax>(264)).or.((dlavg>=(26*2)).and.(np>=128)))) val = (dlmax<16) !val = .true. val = .false. end function choose_sorting end subroutine psi_i_crea_index	base/internals/psi_crea_index.f90
!######################################################################## !PURPOSE : Diagonalize the Effective Impurity Problem !\|{ImpUP1,...,ImpUPN},BathUP>\|{ImpDW1,...,ImpDWN},BathDW> !######################################################################## module ED_DIAG USE SF_CONSTANTS USE SF_LINALG, only: eigh USE SF_TIMER, only: start_timer,stop_timer,eta USE SF_IOTOOLS, only:reg,free_unit ! USE ED_INPUT_VARS USE ED_VARS_GLOBAL USE ED_SETUP USE ED_HAMILTONIAN ! implicit none private public :: diagonalize_impurity contains !+-------------------------------------------------------------------+ !PURPOSE : diagonalize the Hamiltonian in each sector and find the ! spectrum DOUBLE COMPLEX !+------------------------------------------------------------------+ subroutine diagonalize_impurity integer :: nup,ndw,isector,dim integer :: sz,nt integer :: i,j,unit real(8),dimension(Nsectors) :: e0 real(8) :: egs logical :: Tflag ! e0=1000.d0 write(LOGfile,"(A)")"Diagonalize impurity H:" call start_timer() ! ! sector: do isector=1,Nsectors ! Dim = getdim(isector) ! if(ed_verbose==3)then nup = getnup(isector) ndw = getndw(isector) write(LOGfile,"(A,I4,A6,I2,A6,I2,A6,I15)")"Solving sector:",isector,", nup:",nup,", ndw:",ndw,", dim=",getdim(isector) elseif(ed_verbose==1.OR.ed_verbose==2)then call eta(isector,Nsectors,LOGfile) endif ! call setup_Hv_sector(isector) call ed_buildH_c(espace(isector)%M) call delete_Hv_sector() call eigh(espace(isector)%M,espace(isector)%e,'V','U') if(dim==1)espace(isector)%M=one ! e0(isector)=minval(espace(isector)%e) ! enddo sector ! call stop_timer(LOGfile) ! !Get the ground state energy and rescale energies egs=minval(e0) forall(isector=1:Nsectors)espace(isector)%e = espace(isector)%e - egs ! !Get the partition function Z zeta_function=0.d0;zeta_function=0.d0 do isector=1,Nsectors dim=getdim(isector) do i=1,dim zeta_function=zeta_function+exp(-beta*espace(isector)%e(i)) enddo enddo ! write(LOGfile,"(A)")"DIAG resume:" open(free_unit(unit),file='egs'//reg(ed_file_suffix)//".ed",position='append') do isector=1,Nsectors if(e0(isector)/=0d0)cycle nup = getnup(isector) ndw = getndw(isector) write(LOGfile,"(A,F20.12,2I4)")'Egs =',e0(isector),nup,ndw write(unit,"(F20.12,2I4)")e0(isector),nup,ndw enddo write(LOGfile,"(A,F20.12)")'Z =',zeta_function close(unit) return end subroutine diagonalize_impurity end MODULE ED_DIAG	FED_DIAG.f90
# List HDL source code files in folder hdl/ <FPGA_TOP>.v	templates/hdl.f
C C C SUBROUTINE COPYC I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the character array ZIP of size LEN to C the character array X of size LEN. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN CHARACTER(1)ZIP(LEN),X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of character arrays C ZIP - input character array C X - output character array C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE COPYD I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the double precision array ZIP of size LEN C to the double precision array X. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN DOUBLE PRECISION ZIP(LEN), X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of arrays C ZIP - input array of size LEN C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE COPYI I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the integer array ZIP of size LEN to C the integer array X. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN INTEGER ZIP(LEN), X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of arrays C ZIP - input array of size LEN C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE COPYR I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the real array ZIP of size LEN to the C real array X. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN REAL ZIP(LEN), X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of arrays C ZIP - input array of size LEN C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPC I (LEN, ZIP, O X) C C Fill the character array X of size LEN with C the given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN CHARACTER(1)ZIP,X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of character array C ZIP - character to fill array C X - character array to be filled C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPD I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Fill the double precision array X of size LEN C with the given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN DOUBLE PRECISION ZIP, X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of array C ZIP - value to fill array C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPI I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Fill the integer array X of size LEN with C the given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN, ZIP INTEGER X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of array C ZIP - value to fill array C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPR I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Fill the real array X of size LEN with the C given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN REAL ZIP, X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of array C ZIP - value to fill array C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END	wdm_support/UTCP90.f
program demo_which use M_io, only : which implicit none write(,)'ls is ',which('ls') write(,)'dir is ',which('dir') write(,)'install is ',which('install') end program demo_which	example/demo_which.f90
!-------------------------------------------------------------------------------- !M+ ! NAME: ! netCDF_Variable_Utility ! ! PURPOSE: ! Module containing utility routines for netCDF file variable access. ! ! CATEGORY: ! netCDF ! ! LANGUAGE: ! Fortran-95 ! ! CALLING SEQUENCE: ! USE netCDF_Variable_Utility ! ! MODULES: ! Type_Kinds: Module containing data type kind definitions. ! ! Message_Handler: Module to define error codes and handle error ! conditions ! USEs: FILE_UTILITY module ! ! netcdf: Module supplied with the Fortran 90 version of the ! netCDF libraries (at least v3.5.0). ! See http://www.unidata.ucar.edu/packages/netcdf ! ! CONTAINS: ! Get_netCDF_Variable: Function to retrieve a netCDF file variable ! by name. This function is simply a wrapper ! for some of the NetCDF library functions to ! simplify the retrieval of variable data with ! error checking. ! ! Put_netCDF_Variable: Function to write a netCDF file variable ! by name. This function is simply a wrapper ! for some of the NetCDF library functions to ! simplify the writing of variable data with ! error checking. ! ! EXTERNALS: ! None. ! ! COMMON BLOCKS: ! None. ! ! CREATION HISTORY: ! Written by: Paul van Delst, CIMSS/SSEC, 20-Nov-2000 ! [email protected] ! ! Copyright (C) 2000, 2004 Paul van Delst ! !M- !-------------------------------------------------------------------------------- MODULE netCDF_Variable_Utility ! -------------------- ! Declare modules used ! -------------------- USE Type_Kinds USE Message_Handler USE netcdf ! ----------------------- ! Disable implicit typing ! ----------------------- IMPLICIT NONE ! ---------- ! Visibility ! ---------- PRIVATE PUBLIC :: Get_netCDF_Variable PUBLIC :: Put_netCDF_Variable ! --------------------- ! Procedure overloading ! --------------------- ! -- Functions to get variable data INTERFACE Get_netCDF_Variable ! -- Byte integer specific functions MODULE PROCEDURE get_scalar_Byte MODULE PROCEDURE get_rank1_Byte MODULE PROCEDURE get_rank2_Byte MODULE PROCEDURE get_rank3_Byte MODULE PROCEDURE get_rank4_Byte MODULE PROCEDURE get_rank5_Byte MODULE PROCEDURE get_rank6_Byte MODULE PROCEDURE get_rank7_Byte ! -- Short integer specific functions MODULE PROCEDURE get_scalar_Short MODULE PROCEDURE get_rank1_Short MODULE PROCEDURE get_rank2_Short MODULE PROCEDURE get_rank3_Short MODULE PROCEDURE get_rank4_Short MODULE PROCEDURE get_rank5_Short MODULE PROCEDURE get_rank6_Short MODULE PROCEDURE get_rank7_Short ! -- Long integer specific functions MODULE PROCEDURE get_scalar_Long MODULE PROCEDURE get_rank1_Long MODULE PROCEDURE get_rank2_Long MODULE PROCEDURE get_rank3_Long MODULE PROCEDURE get_rank4_Long MODULE PROCEDURE get_rank5_Long MODULE PROCEDURE get_rank6_Long MODULE PROCEDURE get_rank7_Long ! -- Single precision float specific functions MODULE PROCEDURE get_scalar_Single MODULE PROCEDURE get_rank1_Single MODULE PROCEDURE get_rank2_Single MODULE PROCEDURE get_rank3_Single MODULE PROCEDURE get_rank4_Single MODULE PROCEDURE get_rank5_Single MODULE PROCEDURE get_rank6_Single MODULE PROCEDURE get_rank7_Single ! -- Double precision float specific functions MODULE PROCEDURE get_scalar_Double MODULE PROCEDURE get_rank1_Double MODULE PROCEDURE get_rank2_Double MODULE PROCEDURE get_rank3_Double MODULE PROCEDURE get_rank4_Double MODULE PROCEDURE get_rank5_Double MODULE PROCEDURE get_rank6_Double MODULE PROCEDURE get_rank7_Double ! -- Character specific functions MODULE PROCEDURE get_scalar_Character MODULE PROCEDURE get_rank1_Character MODULE PROCEDURE get_rank2_Character MODULE PROCEDURE get_rank3_Character MODULE PROCEDURE get_rank4_Character MODULE PROCEDURE get_rank5_Character MODULE PROCEDURE get_rank6_Character MODULE PROCEDURE get_rank7_Character END INTERFACE Get_netCDF_Variable ! -- Functions to put variable data INTERFACE Put_netCDF_Variable ! -- Byte integer specific functions MODULE PROCEDURE put_scalar_Byte MODULE PROCEDURE put_rank1_Byte MODULE PROCEDURE put_rank2_Byte MODULE PROCEDURE put_rank3_Byte MODULE PROCEDURE put_rank4_Byte MODULE PROCEDURE put_rank5_Byte MODULE PROCEDURE put_rank6_Byte MODULE PROCEDURE put_rank7_Byte ! -- Short integer specific functions MODULE PROCEDURE put_scalar_Short MODULE PROCEDURE put_rank1_Short MODULE PROCEDURE put_rank2_Short MODULE PROCEDURE put_rank3_Short MODULE PROCEDURE put_rank4_Short MODULE PROCEDURE put_rank5_Short MODULE PROCEDURE put_rank6_Short MODULE PROCEDURE put_rank7_Short ! -- Long integer specific functions MODULE PROCEDURE put_scalar_Long MODULE PROCEDURE put_rank1_Long MODULE PROCEDURE put_rank2_Long MODULE PROCEDURE put_rank3_Long MODULE PROCEDURE put_rank4_Long MODULE PROCEDURE put_rank5_Long MODULE PROCEDURE put_rank6_Long MODULE PROCEDURE put_rank7_Long ! -- Single precision float specific functions MODULE PROCEDURE put_scalar_Single MODULE PROCEDURE put_rank1_Single MODULE PROCEDURE put_rank2_Single MODULE PROCEDURE put_rank3_Single MODULE PROCEDURE put_rank4_Single MODULE PROCEDURE put_rank5_Single MODULE PROCEDURE put_rank6_Single MODULE PROCEDURE put_rank7_Single ! -- Double precision float specific functions MODULE PROCEDURE put_scalar_Double MODULE PROCEDURE put_rank1_Double MODULE PROCEDURE put_rank2_Double MODULE PROCEDURE put_rank3_Double MODULE PROCEDURE put_rank4_Double MODULE PROCEDURE put_rank5_Double MODULE PROCEDURE put_rank6_Double MODULE PROCEDURE put_rank7_Double ! -- Character specific functions MODULE PROCEDURE put_scalar_Character MODULE PROCEDURE put_rank1_Character MODULE PROCEDURE put_rank2_Character MODULE PROCEDURE put_rank3_Character MODULE PROCEDURE put_rank4_Character MODULE PROCEDURE put_rank5_Character MODULE PROCEDURE put_rank6_Character MODULE PROCEDURE put_rank7_Character END INTERFACE Put_netCDF_Variable ! ----------------- ! Module parameters ! ----------------- ! -- Module RCS Id string CHARACTER( * ), PRIVATE, PARAMETER :: MODULE_RCS_ID = & CONTAINS FUNCTION get_scalar_Byte( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output INTEGER( Byte ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Byte FUNCTION get_scalar_Short( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output INTEGER( Short ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Short FUNCTION get_scalar_Long( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output INTEGER( Long ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Long FUNCTION get_scalar_Single( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output REAL( Single ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Single FUNCTION get_scalar_Double( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output REAL( Double ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Double FUNCTION get_scalar_CHARACTER( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output CHARACTER( * ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: DimID CHARACTER( NF90_MAX_NAME ) :: DimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = DimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & DimID(1), & Len = String_Length, & Name = DimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( DimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Determine the maximum possible string length String_Length = MIN( String_Length, LEN( Variable_Value ) ) !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value( 1:String_Length ), & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_CHARACTER FUNCTION get_rank1_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Byte FUNCTION get_rank2_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Byte FUNCTION get_rank3_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Byte FUNCTION get_rank4_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Byte FUNCTION get_rank5_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Byte FUNCTION get_rank6_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Byte FUNCTION get_rank7_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Byte FUNCTION get_rank1_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Short FUNCTION get_rank2_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Short FUNCTION get_rank3_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Short FUNCTION get_rank4_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Short FUNCTION get_rank5_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Short FUNCTION get_rank6_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Short FUNCTION get_rank7_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Short FUNCTION get_rank1_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Long FUNCTION get_rank2_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Long FUNCTION get_rank3_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Long FUNCTION get_rank4_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Long FUNCTION get_rank5_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Long FUNCTION get_rank6_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Long FUNCTION get_rank7_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Long FUNCTION get_rank1_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Single FUNCTION get_rank2_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Single FUNCTION get_rank3_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Single FUNCTION get_rank4_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Single FUNCTION get_rank5_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Single FUNCTION get_rank6_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Single FUNCTION get_rank7_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Single FUNCTION get_rank1_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Double FUNCTION get_rank2_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Double FUNCTION get_rank3_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Double FUNCTION get_rank4_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Double FUNCTION get_rank5_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Double FUNCTION get_rank6_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Double FUNCTION get_rank7_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Double FUNCTION get_rank1_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_CHARACTER FUNCTION get_rank2_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_CHARACTER FUNCTION get_rank3_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_CHARACTER FUNCTION get_rank4_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_CHARACTER FUNCTION get_rank5_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_CHARACTER FUNCTION get_rank6_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_CHARACTER FUNCTION get_rank7_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_CHARACTER FUNCTION put_scalar_Byte( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input INTEGER( Byte ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Byte FUNCTION put_scalar_Short( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input INTEGER( Short ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Short FUNCTION put_scalar_Long( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input INTEGER( Long ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Long FUNCTION put_scalar_Single( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input REAL( Single ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Single FUNCTION put_scalar_Double( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input REAL( Double ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Double FUNCTION put_scalar_CHARACTER( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input CHARACTER( * ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: DimID CHARACTER( NF90_MAX_NAME ) :: DimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = DimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & DimID(1), & Len = String_Length, & Name = DimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( DimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Determine the maximum possible string length String_Length = MIN( String_Length, LEN( Variable_Value ) ) !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value( 1:String_Length ), & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_CHARACTER FUNCTION put_rank1_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Byte FUNCTION put_rank2_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Byte FUNCTION put_rank3_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Byte FUNCTION put_rank4_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Byte FUNCTION put_rank5_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Byte FUNCTION put_rank6_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Byte FUNCTION put_rank7_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Byte FUNCTION put_rank1_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Short FUNCTION put_rank2_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Short FUNCTION put_rank3_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Short FUNCTION put_rank4_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Short FUNCTION put_rank5_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Short FUNCTION put_rank6_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Short FUNCTION put_rank7_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Short FUNCTION put_rank1_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Long FUNCTION put_rank2_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Long FUNCTION put_rank3_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Long FUNCTION put_rank4_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Long FUNCTION put_rank5_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Long FUNCTION put_rank6_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Long FUNCTION put_rank7_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Long FUNCTION put_rank1_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Single FUNCTION put_rank2_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Single FUNCTION put_rank3_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Single FUNCTION put_rank4_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Single FUNCTION put_rank5_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Single FUNCTION put_rank6_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Single FUNCTION put_rank7_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Single FUNCTION put_rank1_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Double FUNCTION put_rank2_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Double FUNCTION put_rank3_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Double FUNCTION put_rank4_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Double FUNCTION put_rank5_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Double FUNCTION put_rank6_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Double FUNCTION put_rank7_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Double FUNCTION put_rank1_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_CHARACTER FUNCTION put_rank2_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_CHARACTER FUNCTION put_rank3_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_CHARACTER FUNCTION put_rank4_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_CHARACTER FUNCTION put_rank5_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_CHARACTER FUNCTION put_rank6_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_CHARACTER FUNCTION put_rank7_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_CHARACTER END MODULE netCDF_Variable_Utility !------------------------------------------------------------------------------- ! -- MODIFICATION HISTORY -- !------------------------------------------------------------------------------- ! ! ! $Date: 2006/07/26 21:39:05 $ ! ! $Revision: 1.2 $ ! ! $Name: $ ! ! $State: Exp $ ! ! $Log: netCDF_Variable_Utility.f90,v $ ! Revision 1.2 2006/07/26 21:39:05 wd20pd ! Additional replacement of "Error_Handler" string with "Message_Handler" ! in documentaiton blocks. ! ! Revision 1.1 2006/06/08 21:47:55 wd20pd ! Initial checkin. ! ! Revision 1.9 2006/05/02 16:58:03 dgroff ! * empty log message * ! ! Revision 1.8 2005/01/11 18:49:42 paulv ! - Regenerated from updated pp files. ! ! Revision 1.6 2003/05/16 15:28:19 paulv ! - Added correct dimension indices for Variable_Value test in the ! character Get() and Put() functions. ! ! Revision 1.5 2003/02/28 22:13:37 paulv ! - Completed addition of character typed functions for netCDF variable ! extraction. Partially tested. ! ! Revision 1.4 2003/02/19 13:34:10 paulv ! - Added functions to allow character variable scalar and array data to ! be retrieved from a netCDF dataset. ! ! Revision 1.3 2002/12/23 21:16:13 paulv ! - Added Put_netCDF_Variable() functions. ! ! Revision 1.2 2002/05/20 17:59:01 paulv ! - Updated header documentation. ! ! Revision 1.1 2002/05/20 17:03:57 paulv ! Initial checkin. Routines not yet tested. ! ! ! !	src/Utility/netCDF/netCDF_Variable_Utility.f90
C********************************************************************* C Module: asetup.f C C Copyright (C) 2002 Mark Drela, Harold Youngren C C This program is free software; you can redistribute it and/or modify C it under the terms of the GNU General Public License as published by C the Free Software Foundation; either version 2 of the License, or C (at your option) any later version. C C This program is distributed in the hope that it will be useful, C but WITHOUT ANY WARRANTY; without even the implied warranty of C MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the C GNU General Public License for more details. C C You should have received a copy of the GNU General Public License C along with this program; if not, write to the Free Software C Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA. C******************************************************************* SUBROUTINE SETUP C C...PURPOSE To set up the vortex lattice calculation. C C Additional geometry data is calculated. C An AIC matrix is assembled and solutions C obtained for 0 deg and 90 deg angle of attack C (for later superposition in AERO). The matrix C defining normalwash at the bound vortex midpoints C is calculated. This is used to define the bound vortex C normalwash for 0 and 90 deg angles of attack (used C for superposition in AERO). C C...INPUT Global Data in labelled commons, defining configuration C C...OUTPUT GAM(i,1..3) Vortex strengths for unit VINF1,2,3 C GAM(i,4..6) Vortex strengths for unit WROT1,2,3 C W Normalwash at vortex midpoints for GAM C C...COMMENTS C INCLUDE 'AVL.INC' REAL WORK(NVMAX) C AMACH = MACH BETM = SQRT(1.0 - AMACH2) C C IF(.NOT.LAIC) THEN WRITE(,) ' Building normalwash AIC matrix...' CALL VVOR(BETM,IYSYM,YSYM,IZSYM,ZSYM,VRCORE, & NVOR,RV1,RV2,NSURFV,CHORDV, & NVOR,RC , NSURFV,.FALSE., & WC_GAM,NVMAX) DO I = 1, NVOR DO J = 1, NVOR AICN(I,J) = WC_GAM(1,I,J)ENC(1,I) & + WC_GAM(2,I,J)ENC(2,I) & + WC_GAM(3,I,J)ENC(3,I) LVNC(I) = .TRUE. ccc write(,) i, j, aicn(i,j) !@@@ ENDDO ENDDO C----- process each surface which does not shed a wake DO 10 N = 1, NSURF IF(LFWAKE(N)) GO TO 10 C------- go over TE control points on this surface J1 = JFRST(N) JN = JFRST(N) + NJ(N)-1 C DO J = J1, JN I1 = IJFRST(J) IV = IJFRST(J) + NVSTRP(J) - 1 C--------- clear system row for TE control point DO JV = 1, NVOR AICN(IV,JV) = 0. ENDDO LVNC(IV) = .FALSE. C--------- set sum_strip(Gamma) = 0 for this strip DO JV = I1, IV AICN(IV,JV) = 1.0 ENDDO ENDDO 10 CONTINUE C CC...Holdover from HPV hydro project for forces near free surface CC...Eliminates excluded vortices from eqns which are below z=Zsym C CALL MUNGEA C WRITE(,) ' Factoring normalwash AIC matrix...' CALL LUDCMP(NVMAX,NVOR,AICN,IAPIV,WORK) C LAIC = .TRUE. ENDIF C C IF(.NOT.LSRD) THEN WRITE(,) ' Building source+doublet strength AIC matrix...' CALL SRDSET(BETM,XYZREF, & NBODY,LFRST,NLMAX, & NL,RL,RADL, & SRC_U,DBL_U) WRITE(,) ' Building source+doublet velocity AIC matrix...' NU = 6 CALL VSRD(BETM,IYSYM,YSYM,IZSYM,ZSYM,SRCORE, & NBODY,LFRST,NLMAX, & NL,RL,RADL, & NU,SRC_U,DBL_U, & NVOR,RC, & WCSRD_U,NVMAX) LSRD = .TRUE. ENDIF C IF(.NOT.LVEL) THEN WRITE(,) ' Building bound-vortex velocity matrix...' CALL VVOR(BETM,IYSYM,YSYM,IZSYM,ZSYM,VRCORE, & NVOR,RV1,RV2,NSURFV,CHORDV, & NVOR,RV , NSURFV,.TRUE., & WV_GAM,NVMAX) C NU = 6 CALL VSRD(BETM,IYSYM,YSYM,IZSYM,ZSYM,SRCORE, & NBODY,LFRST,NLMAX, & NL,RL,RADL, & NU,SRC_U,DBL_U, & NVOR,RV , & WVSRD_U,NVMAX) C LVEL = .TRUE. ENDIF C RETURN END ! SETUP SUBROUTINE GUCALC INCLUDE 'AVL.INC' REAL RROT(3), VUNIT(3), WUNIT(3) C C---- setup BC's at control points for unit freestream,rotation vectors, C and back-substitute to obtain corresponding vortex circulations C C---- go over freestream velocity components u,v,w = f(V,beta,alpha) DO 10 IU = 1, 3 C------ go over all control points DO I = 1, NVOR IF(LVNC(I)) THEN C--------- this c.p. has V.n equation... VUNIT(1) = 0. VUNIT(2) = 0. VUNIT(3) = 0. IF(LVALBE(I)) THEN C---------- direct freestream influence is enabled for this c.p. VUNIT(IU) = VUNIT(IU) + 1.0 ENDIF C--------- always add on indirect freestream influence via BODY sources and doublets VUNIT(1) = VUNIT(1) + WCSRD_U(1,I,IU) VUNIT(2) = VUNIT(2) + WCSRD_U(2,I,IU) VUNIT(3) = VUNIT(3) + WCSRD_U(3,I,IU) C--------- set r.h.s. for V.n equation GAM_U_0(I,IU) = -DOT(ENC(1,I),VUNIT) DO N = 1, NCONTROL GAM_U_D(I,IU,N) = -DOT(ENC_D(1,I,N),VUNIT) ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = -DOT(ENC_G(1,I,N),VUNIT) ENDDO ELSE C--------- just clear r.h.s. GAM_U_0(I,IU) = 0. DO N = 1, NCONTROL GAM_U_D(I,IU,N) = 0. ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = 0. ENDDO ENDIF ENDDO CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_0(1,IU)) DO N = 1, NCONTROL CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_D(1,IU,N)) ENDDO DO N = 1, NDESIGN CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_G(1,IU,N)) ENDDO 10 CONTINUE C C---- go over freestream rotation components p,q,r DO 20 IU = 4, 6 C------ go over all control points DO I = 1, NVOR IF(LVNC(I)) THEN C--------- this c.p. has V.n equation WUNIT(1) = 0. WUNIT(2) = 0. WUNIT(3) = 0. IF(LVALBE(I)) THEN C---------- direct freestream influence is enabled for this c.p. WUNIT(IU-3) = WUNIT(IU-3) + 1.0 ENDIF RROT(1) = RC(1,I) - XYZREF(1) RROT(2) = RC(2,I) - XYZREF(2) RROT(3) = RC(3,I) - XYZREF(3) CALL CROSS(RROT,WUNIT,VUNIT) C--------- always add on indirect freestream influence via BODY sources and doublets VUNIT(1) = VUNIT(1) + WCSRD_U(1,I,IU) VUNIT(2) = VUNIT(2) + WCSRD_U(2,I,IU) VUNIT(3) = VUNIT(3) + WCSRD_U(3,I,IU) C--------- set r.h.s. for V.n equation GAM_U_0(I,IU) = -DOT(ENC(1,I),VUNIT) DO N = 1, NCONTROL GAM_U_D(I,IU,N) = -DOT(ENC_D(1,I,N),VUNIT) ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = -DOT(ENC_G(1,I,N),VUNIT) ENDDO ELSE C--------- just clear r.h.s. GAM_U_0(I,IU) = 0. DO N = 1, NCONTROL GAM_U_D(I,IU,N) = 0. ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = 0. ENDDO ENDIF ENDDO CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_0(1,IU)) DO N = 1, NCONTROL CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_D(1,IU,N)) ENDDO DO N = 1, NDESIGN CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_G(1,IU,N)) ENDDO 20 CONTINUE C RETURN END ! GUCALC SUBROUTINE GDCALC(NQDEF,LQDEF,ENC_Q,GAM_Q) INCLUDE 'AVL.INC' LOGICAL LQDEF() REAL ENC_Q(3,NVMAX,), GAM_Q(NVMAX,) C C REAL RROT(3), VROT(3), VC(3) C IF(NQDEF.EQ.0) RETURN C C---- Setup variational BC's at the control points DO 100 IQ = 1, NQDEF C------ don't bother if this control variable is undefined IF(.NOT.LQDEF(IQ)) GO TO 100 C DO I = 1, NVOR IF(LVNC(I)) THEN IF(LVALBE(I)) THEN RROT(1) = RC(1,I) - XYZREF(1) RROT(2) = RC(2,I) - XYZREF(2) RROT(3) = RC(3,I) - XYZREF(3) CALL CROSS(RROT,WROT,VROT) DO K = 1, 3 VC(K) = VINF(K) & + VROT(K) ENDDO ELSE VC(1) = 0. VC(2) = 0. VC(3) = 0. ENDIF DO K = 1, 3 VC(K) = VC(K) & + WCSRD_U(K,I,1)VINF(1) & + WCSRD_U(K,I,2)VINF(2) & + WCSRD_U(K,I,3)VINF(3) & + WCSRD_U(K,I,4)WROT(1) & + WCSRD_U(K,I,5)WROT(2) & + WCSRD_U(K,I,6)WROT(3) ENDDO C GAM_Q(I,IQ) = -DOT(ENC_Q(1,I,IQ),VC) ELSE GAM_Q(I,IQ) = 0. ENDIF ENDDO C****************************************************************** C...Holdover from HPV hydro project for forces near free surface C...Eliminates excluded vortex equations for strips with z<Zsym ccc CALL MUNGEB(GAM_Q(1,IQ)) C****************************************************************** C CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_Q(1,IQ)) 100 CONTINUE C RETURN END ! GDCALC SUBROUTINE MUNGEA C C...PURPOSE To remove hidden vortex equations in AIC matrix C C...OUTPUT A(.,.) AIC matrix with affected rows replaced with 1 on diagonal C C INCLUDE 'AVL.INC' C DO 30 J = 1, NSTRIP IF (.NOT. LSTRIPOFF(J)) GO TO 30 I1 = IJFRST(J) DO 20 K = 1, NVSTRP(J) II = I1+K-1 DO 10 I = 1, NVOR AICN(II,I) = 0.0 10 CONTINUE AICN(II,II) = 1.0 20 CONTINUE 30 CONTINUE C RETURN END SUBROUTINE MUNGEB(B) C C...PURPOSE To remove hidden vortex equations in RHS's C C...OUTPUT B(.) RHS vector with affected rows replaced with 0 C INCLUDE 'AVL.INC' REAL B(NVMAX) C DO 30 J = 1, NSTRIP IF (.NOT. LSTRIPOFF(J)) GO TO 30 I1 = IJFRST(J) DO 20 K = 1, NVSTRP(J) II = I1+K-1 B(II) = 0. 20 CONTINUE 30 CONTINUE C RETURN END SUBROUTINE GAMSUM INCLUDE 'AVL.INC' C-------------------------------------------------- C Sums AIC components to get GAM, SRC, DBL C-------------------------------------------------- C C---- Set vortex strengths DO I = 1, NVOR DO IU = 1, 6 GAM_U(I,IU) = GAM_U_0(I,IU) DO N = 1, NCONTROL GAM_U(I,IU) = GAM_U(I,IU) + GAM_U_D(I,IU,N)DELCON(N) ENDDO DO N = 1, NDESIGN GAM_U(I,IU) = GAM_U(I,IU) + GAM_U_G(I,IU,N)DELDES(N) ENDDO ENDDO DO N = 1, NCONTROL GAM_D(I,N) = GAM_U_D(I,1,N)VINF(1) & + GAM_U_D(I,2,N)VINF(2) & + GAM_U_D(I,3,N)VINF(3) & + GAM_U_D(I,4,N)WROT(1) & + GAM_U_D(I,5,N)WROT(2) & + GAM_U_D(I,6,N)WROT(3) ENDDO DO N = 1, NDESIGN GAM_G(I,N) = GAM_U_G(I,1,N)VINF(1) & + GAM_U_G(I,2,N)VINF(2) & + GAM_U_G(I,3,N)VINF(3) & + GAM_U_G(I,4,N)WROT(1) & + GAM_U_G(I,5,N)WROT(2) & + GAM_U_G(I,6,N)WROT(3) ENDDO GAM(I) = GAM_U(I,1)VINF(1) & + GAM_U(I,2)VINF(2) & + GAM_U(I,3)VINF(3) & + GAM_U(I,4)WROT(1) & + GAM_U(I,5)WROT(2) & + GAM_U(I,6)WROT(3) c DO N = 1, NCONTROL c GAM(I) = GAM(I) + GAM_D(I,N)DELCON(N) c ENDDO c DO N = 1, NDESIGN c GAM(I) = GAM(I) + GAM_G(I,N)DELDES(N) c ENDDO END DO C C---- Set source and doublet strengths DO L = 1, NLNODE SRC(L) = SRC_U(L,1)VINF(1) & + SRC_U(L,2)VINF(2) & + SRC_U(L,3)VINF(3) & + SRC_U(L,4)WROT(1) & + SRC_U(L,5)WROT(2) & + SRC_U(L,6)WROT(3) DO K = 1, 3 DBL(K,L) = DBL_U(K,L,1)VINF(1) & + DBL_U(K,L,2)VINF(2) & + DBL_U(K,L,3)VINF(3) & + DBL_U(K,L,4)WROT(1) & + DBL_U(K,L,5)WROT(2) & + DBL_U(K,L,6)WROT(3) ENDDO ENDDO C RETURN END ! GAMSUM SUBROUTINE VELSUM INCLUDE 'AVL.INC' C-------------------------------------------------- C Sums AIC components to get WC, WV C-------------------------------------------------- C DO I = 1, NVOR DO K = 1, 3 WC(K,I) = WCSRD_U(K,I,1)VINF(1) & + WCSRD_U(K,I,2)VINF(2) & + WCSRD_U(K,I,3)VINF(3) & + WCSRD_U(K,I,4)WROT(1) & + WCSRD_U(K,I,5)WROT(2) & + WCSRD_U(K,I,6)WROT(3) WV(K,I) = WVSRD_U(K,I,1)VINF(1) & + WVSRD_U(K,I,2)VINF(2) & + WVSRD_U(K,I,3)VINF(3) & + WVSRD_U(K,I,4)WROT(1) & + WVSRD_U(K,I,5)WROT(2) & + WVSRD_U(K,I,6)WROT(3) DO J = 1, NVOR WC(K,I) = WC(K,I) + WC_GAM(K,I,J)GAM(J) WV(K,I) = WV(K,I) + WV_GAM(K,I,J)GAM(J) ENDDO C DO N = 1, NUMAX WC_U(K,I,N) = WCSRD_U(K,I,N) WV_U(K,I,N) = WVSRD_U(K,I,N) DO J = 1, NVOR WC_U(K,I,N) = WC_U(K,I,N) + WC_GAM(K,I,J)GAM_U(J,N) WV_U(K,I,N) = WV_U(K,I,N) + WV_GAM(K,I,J)GAM_U(J,N) ENDDO ENDDO C ENDDO ENDDO C RETURN END ! VELSUM SUBROUTINE WSENS INCLUDE 'AVL.INC' C--------------------------------------------------- C Computes induced-velocity sensitivities C to control and design changes C--------------------------------------------------- C DO I = 1, NVOR DO K = 1, 3 DO N = 1, NCONTROL WC_D(K,I,N) = 0. WV_D(K,I,N) = 0. DO J = 1, NVOR WC_D(K,I,N) = WC_D(K,I,N) + WC_GAM(K,I,J)GAM_D(J,N) WV_D(K,I,N) = WV_D(K,I,N) + WV_GAM(K,I,J)GAM_D(J,N) ENDDO ENDDO C DO N = 1, NDESIGN WC_G(K,I,N) = 0. WV_G(K,I,N) = 0. DO J = 1, NVOR WC_G(K,I,N) = WC_G(K,I,N) + WC_GAM(K,I,J)GAM_G(J,N) WV_G(K,I,N) = WV_G(K,I,N) + WV_GAM(K,I,J)GAM_G(J,N) ENDDO ENDDO ENDDO ENDDO C RETURN END ! WSENS	third_party/avl/src/asetup.f
PROGRAM test_message use mpi use ghex_mod use ghex_message_mod implicit none integer(8) :: msg_size = 16, i type(ghex_message) :: msg integer(1), dimension(:), pointer :: msg_data msg = ghex_message_new(msg_size, GhexAllocatorHost) msg_data => ghex_message_data(msg) msg_data(1:msg_size) = (/(i, i=1,msg_size,1)/) print *, "values: ", msg_data ! cleanup call ghex_free(msg) END PROGRAM test_message	tests/bindings/test_f_message.f90
MODULE bc_module use rgrid_module, only: Ngrid,Igrid use parallel_module use bc_mol_module, only: init_bcset_mol use bc_variables, only: fdinfo_send,fdinfo_recv,n_neighbor,www,Md & ,sbuf,rbuf,TYPE_MAIN,zero use watch_module use bcset_1_module, only: bcset_1 use bcset_3_module, only: bcset_3 implicit none PRIVATE PUBLIC :: init_bcset PUBLIC :: bcset PUBLIC :: bcset_1 PUBLIC :: bcset_3 PUBLIC :: n_neighbor, fdinfo_send, fdinfo_recv PUBLIC :: www CONTAINS SUBROUTINE bcset(ib1,ib2,ndepth,idir) implicit none integer,intent(IN) :: ib1,ib2,ndepth,idir integer :: a1,a2,a3,b1,b2,b3,nb,ns,ms,mt integer :: m,n,ndata,i1,i2,i3,ib,ierr integer :: c1,c2,c3,d1,d2,d3,irank,nreq,itags,itagr,ireq(36) integer :: i,j,l integer :: istatus(mpi_status_size,123) a1=Igrid(1,1) b1=Igrid(2,1) a2=Igrid(1,2) b2=Igrid(2,2) a3=Igrid(1,3) b3=Igrid(2,3) nb=ib2-ib1+1 nreq=0 !(1) [sender][2]-->[1][receiver] if ( idir==0 .or. idir==1 .or. idir==2 ) then do n=1,n_neighbor(1) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,1)nb else ndata = fdinfo_recv(9,n,1)nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,1) itagr = 10 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,1),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(2) if ( ndepth==1 ) then c1=b1 d1=b1 j=fdinfo_send(10,n,2)nb else c1=fdinfo_send(1,n,2) d1=fdinfo_send(2,n,2) j=fdinfo_send(9,n,2)nb end if c2=fdinfo_send(3,n,2) ; d2=fdinfo_send(4,n,2) c3=fdinfo_send(5,n,2) ; d3=fdinfo_send(6,n,2) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,2)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,2) itags = 10 nreq = nreq + 1 call mpi_isend(sbuf(1,n,2),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(3) [sender][4]-->[3][receiver] if ( idir==0 .or. idir==3 .or. idir==4 ) then do n=1,n_neighbor(3) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,3)nb else ndata = fdinfo_recv(9,n,3)nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,3) itagr = 30 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,3),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(4) if ( ndepth==1 ) then c2=b2 d2=b2 j=fdinfo_send(10,n,4)nb else c2=fdinfo_send(3,n,4) d2=fdinfo_send(4,n,4) j=fdinfo_send(9,n,4)nb end if c1=fdinfo_send(1,n,4) ; d1=fdinfo_send(2,n,4) c3=fdinfo_send(5,n,4) ; d3=fdinfo_send(6,n,4) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,4)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,4) itags = 30 nreq = nreq + 1 call mpi_isend(sbuf(1,n,4),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(5) [sender][6]-->[5][receiver] if ( idir==0 .or. idir==5 .or. idir==6 ) then do n=1,n_neighbor(5) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,5)nb else ndata = fdinfo_recv(9,n,5)nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,5) itagr = 50 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,5),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(6) if ( ndepth==1 ) then c3=b3 d3=b3 j=fdinfo_send(10,n,6)nb else c3=fdinfo_send(5,n,6) d3=fdinfo_send(6,n,6) j=fdinfo_send(9,n,6)nb end if c1=fdinfo_send(1,n,6) ; d1=fdinfo_send(2,n,6) c2=fdinfo_send(3,n,6) ; d2=fdinfo_send(4,n,6) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,6)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,6) itags = 50 nreq = nreq + 1 call mpi_isend(sbuf(1,n,6),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(2) [receiver][2]<--[1][sender] if ( idir==0 .or. idir==1 .or. idir==2 ) then do n=1,n_neighbor(2) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,2)nb else ndata = fdinfo_recv(9,n,2)nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,2) itagr = 20 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,2),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(1) if ( ndepth==1 ) then c1=a1 d1=a1 j=fdinfo_send(10,n,1)nb else c1=fdinfo_send(1,n,1) d1=fdinfo_send(2,n,1) j=fdinfo_send(9,n,1)nb end if c2=fdinfo_send(3,n,1) ; d2=fdinfo_send(4,n,1) c3=fdinfo_send(5,n,1) ; d3=fdinfo_send(6,n,1) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,1)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,1) itags = 20 nreq = nreq + 1 call mpi_isend(sbuf(1,n,1),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(4) [receiver][4]<--[3][sender] if ( idir==0 .or. idir==3 .or. idir==4 ) then do n=1,n_neighbor(4) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,4)nb else ndata = fdinfo_recv(9,n,4)nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,4) itagr = 40 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,4),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(3) if ( ndepth==1 ) then c2=a2 d2=a2 j=fdinfo_send(10,n,3)nb else c2=fdinfo_send(3,n,3) d2=fdinfo_send(4,n,3) j=fdinfo_send(9,n,3)nb end if c1=fdinfo_send(1,n,3) ; d1=fdinfo_send(2,n,3) c3=fdinfo_send(5,n,3) ; d3=fdinfo_send(6,n,3) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,3)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,3) itags = 40 nreq = nreq + 1 call mpi_isend(sbuf(1,n,3),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(6) [receiver][6]<--[5][sender] if ( idir==0 .or. idir==5 .or. idir==6 ) then do n=1,n_neighbor(6) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,6)nb else ndata = fdinfo_recv(9,n,6)nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,6) itagr = 60 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,6),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(5) if ( ndepth==1 ) then c3=a3 d3=a3 j=fdinfo_send(10,n,5)nb else c3=fdinfo_send(5,n,5) d3=fdinfo_send(6,n,5) j=fdinfo_send(9,n,5)nb end if c1=fdinfo_send(1,n,5) ; d1=fdinfo_send(2,n,5) c2=fdinfo_send(3,n,5) ; d2=fdinfo_send(4,n,5) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,5)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,5) itags = 60 nreq = nreq + 1 call mpi_isend(sbuf(1,n,5),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 do m=1,6 do n=1,n_neighbor(m) c1=fdinfo_recv(1,n,m) d1=fdinfo_recv(2,n,m) c2=fdinfo_recv(3,n,m) d2=fdinfo_recv(4,n,m) c3=fdinfo_recv(5,n,m) d3=fdinfo_recv(6,n,m) if ( Md>ndepth .and. ndepth==1 ) then if ( fdinfo_recv(10,n,m)<1 ) cycle select case(m) case(1) c1=a1-1 d1=c1 case(2) c1=b1+1 d1=c1 case(3) c2=a2-1 d2=c2 case(4) c2=b2+1 d2=c2 case(5) c3=a3-1 d3=c3 case(6) c3=b3+1 d3=c3 end select else if ( fdinfo_recv(9,n,m)<1 ) cycle end if i=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 i=i+1 www(i1,i2,i3,ib)=rbuf(i,n,m) end do end do end do end do end do end do return END SUBROUTINE bcset SUBROUTINE init_bcset( Md_in, SYStype ) implicit none integer,intent(IN) :: Md_in, SYStype Md = Md_in select case( SYStype ) case default call init_bcset_sol case( 1 ) call init_bcset_mol(Md,Ngrid(1),np_grid,myrank_g,comm_grid,pinfo_grid) end select call allocate_bcset END SUBROUTINE init_bcset SUBROUTINE init_bcset_sol implicit none integer :: a1,a2,a3,b1,b2,b3,a1b,b1b,a2b,b2b,a3b,b3b integer,allocatable :: map_grid_2_pinfo(:,:,:,:) integer,allocatable :: ireq(:) integer :: i,i1,i2,i3,m,n,j,j1,j2,j3,nc,m1,m2,m3 integer :: jrank,ip,fp,ns,irank,nreq,itags,itagr,ierr integer :: ML1,ML2,ML3 integer :: istatus(MPI_STATUS_SIZE,123) call write_border( 80, " init_bcset_sol(start)" ) ML1 = Ngrid(1) ML2 = Ngrid(2) ML3 = Ngrid(3) a1b=Igrid(1,1) ; b1b=Igrid(2,1) a2b=Igrid(1,2) ; b2b=Igrid(2,2) a3b=Igrid(1,3) ; b3b=Igrid(2,3) a1=-Md ; b1=Ngrid(1)-1+Md a2=-Md ; b2=Ngrid(2)-1+Md a3=-Md ; b3=Ngrid(3)-1+Md allocate( map_grid_2_pinfo(a1:b1,a2:b2,a3:b3,2) ) map_grid_2_pinfo(:,:,:,:)=0 do i=0,np_grid-1 i1=pinfo_grid(1,i) m1=pinfo_grid(2,i) i2=pinfo_grid(3,i) m2=pinfo_grid(4,i) i3=pinfo_grid(5,i) m3=pinfo_grid(6,i) do j3=i3,i3+m3-1 do j2=i2,i2+m2-1 do j1=i1,i1+m1-1 map_grid_2_pinfo(j1,j2,j3,1)=i map_grid_2_pinfo(j1,j2,j3,2)=pinfo_grid(7,i) end do end do end do end do do i3=a3,b3 j3=mod(i3+ML3,ML3) do i2=a2,b2 j2=mod(i2+ML2,ML2) do i1=a1,b1 j1=mod(i1+ML1,ML1) map_grid_2_pinfo(i1,i2,i3,1)=map_grid_2_pinfo(j1,j2,j3,1) map_grid_2_pinfo(i1,i2,i3,2)=map_grid_2_pinfo(j1,j2,j3,2) end do end do end do do i=2,6,2 n=minval( pinfo_grid(i,0:np_grid-1) ) do nc=1,Md if ( ncn >= Md ) exit end do if ( nc<1 .or. Md<nc ) stop n_neighbor(i-1)=nc n_neighbor(i) =nc end do n=maxval(n_neighbor(:)) allocate( fdinfo_send(10,n,6) ) ; fdinfo_send=0 allocate( fdinfo_recv(10,n,6) ) ; fdinfo_recv=0 fdinfo_send(7,:,:)=MPI_PROC_NULL fdinfo_recv(8,:,:)=MPI_PROC_NULL jrank=map_grid_2_pinfo(a1b-1,a2b,a3b,1) ip=a1b-1 fp=ip nc=1 ns=(b2b-a2b+1)(b3b-a3b+1) fdinfo_recv(1,nc,1)=ip fdinfo_recv(2,nc,1)=fp fdinfo_recv(3,nc,1)=a2b fdinfo_recv(4,nc,1)=b2b fdinfo_recv(5,nc,1)=a3b fdinfo_recv(6,nc,1)=b3b fdinfo_recv(7,nc,1)=myrank_g fdinfo_recv(8,nc,1)=jrank fdinfo_recv(9,nc,1)=ns fdinfo_recv(10,nc,1)=ns do i=a1b-2,a1b-Md,-1 irank=map_grid_2_pinfo(i,a2b,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 fp=i end if fdinfo_recv(1,nc,1)=i fdinfo_recv(2,nc,1)=fp fdinfo_recv(3,nc,1)=a2b fdinfo_recv(4,nc,1)=b2b fdinfo_recv(5,nc,1)=a3b fdinfo_recv(6,nc,1)=b3b fdinfo_recv(7,nc,1)=myrank_g fdinfo_recv(8,nc,1)=jrank fdinfo_recv(9,nc,1)=(fp-i+1)ns end do jrank=map_grid_2_pinfo(b1b+1,a2b,a3b,1) ip=b1b+1 fp=ip nc=1 ns=(b2b-a2b+1)(b3b-a3b+1) fdinfo_recv(1,nc,2)=ip fdinfo_recv(2,nc,2)=fp fdinfo_recv(3,nc,2)=a2b fdinfo_recv(4,nc,2)=b2b fdinfo_recv(5,nc,2)=a3b fdinfo_recv(6,nc,2)=b3b fdinfo_recv(7,nc,2)=myrank_g fdinfo_recv(8,nc,2)=jrank fdinfo_recv(9,nc,2)=ns fdinfo_recv(10,nc,2)=ns do i=b1b+1,b1b+Md irank=map_grid_2_pinfo(i,a2b,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 ip=i end if fdinfo_recv(1,nc,2)=ip fdinfo_recv(2,nc,2)=i fdinfo_recv(3,nc,2)=a2b fdinfo_recv(4,nc,2)=b2b fdinfo_recv(5,nc,2)=a3b fdinfo_recv(6,nc,2)=b3b fdinfo_recv(7,nc,2)=myrank_g fdinfo_recv(8,nc,2)=jrank fdinfo_recv(9,nc,2)=(i-ip+1)ns end do jrank=map_grid_2_pinfo(a1b,a2b-1,a3b,1) ip=a2b-1 fp=ip nc=1 ns=(b1b-a1b+1)(b3b-a3b+1) fdinfo_recv(1,nc,3)=a1b fdinfo_recv(2,nc,3)=b1b fdinfo_recv(3,nc,3)=ip fdinfo_recv(4,nc,3)=fp fdinfo_recv(5,nc,3)=a3b fdinfo_recv(6,nc,3)=b3b fdinfo_recv(7,nc,3)=myrank_g fdinfo_recv(8,nc,3)=jrank fdinfo_recv(9,nc,3)=ns fdinfo_recv(10,nc,3)=ns do i=a2b-2,a2b-Md,-1 irank=map_grid_2_pinfo(a1b,i,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 fp=i end if fdinfo_recv(1,nc,3)=a1b fdinfo_recv(2,nc,3)=b1b fdinfo_recv(3,nc,3)=i fdinfo_recv(4,nc,3)=fp fdinfo_recv(5,nc,3)=a3b fdinfo_recv(6,nc,3)=b3b fdinfo_recv(7,nc,3)=myrank_g fdinfo_recv(8,nc,3)=jrank fdinfo_recv(9,nc,3)=(fp-i+1)ns end do jrank=map_grid_2_pinfo(a1b,b2b+1,a3b,1) ip=b2b+1 fp=ip nc=1 ns=(b1b-a1b+1)(b3b-a3b+1) fdinfo_recv(1,nc,4)=a1b fdinfo_recv(2,nc,4)=b1b fdinfo_recv(3,nc,4)=ip fdinfo_recv(4,nc,4)=fp fdinfo_recv(5,nc,4)=a3b fdinfo_recv(6,nc,4)=b3b fdinfo_recv(7,nc,4)=myrank_g fdinfo_recv(8,nc,4)=jrank fdinfo_recv(9,nc,4)=ns fdinfo_recv(10,nc,4)=ns do i=b2b+1,b2b+Md irank=map_grid_2_pinfo(a1b,i,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 ip=i end if fdinfo_recv(1,nc,4)=a1b fdinfo_recv(2,nc,4)=b1b fdinfo_recv(3,nc,4)=ip fdinfo_recv(4,nc,4)=i fdinfo_recv(5,nc,4)=a3b fdinfo_recv(6,nc,4)=b3b fdinfo_recv(7,nc,4)=myrank_g fdinfo_recv(8,nc,4)=jrank fdinfo_recv(9,nc,4)=(i-ip+1)ns end do jrank=map_grid_2_pinfo(a1b,a2b,a3b-1,1) ip=a3b-1 fp=ip nc=1 ns=(b2b-a2b+1)(b1b-a1b+1) fdinfo_recv(1,nc,5)=a1b fdinfo_recv(2,nc,5)=b1b fdinfo_recv(3,nc,5)=a2b fdinfo_recv(4,nc,5)=b2b fdinfo_recv(5,nc,5)=ip fdinfo_recv(6,nc,5)=fp fdinfo_recv(7,nc,5)=myrank_g fdinfo_recv(8,nc,5)=jrank fdinfo_recv(9,nc,5)=ns fdinfo_recv(10,nc,5)=ns do i=a3b-2,a3b-Md,-1 irank=map_grid_2_pinfo(a1b,a2b,i,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 fp=i end if fdinfo_recv(1,nc,5)=a1b fdinfo_recv(2,nc,5)=b1b fdinfo_recv(3,nc,5)=a2b fdinfo_recv(4,nc,5)=b2b fdinfo_recv(5,nc,5)=i fdinfo_recv(6,nc,5)=fp fdinfo_recv(7,nc,5)=myrank_g fdinfo_recv(8,nc,5)=jrank fdinfo_recv(9,nc,5)=(fp-i+1)ns end do jrank=map_grid_2_pinfo(a1b,a2b,b3b+1,1) ip=b3b+1 fp=ip nc=1 ns=(b2b-a2b+1)(b1b-a1b+1) fdinfo_recv(1,nc,6)=a1b fdinfo_recv(2,nc,6)=b1b fdinfo_recv(3,nc,6)=a2b fdinfo_recv(4,nc,6)=b2b fdinfo_recv(5,nc,6)=ip fdinfo_recv(6,nc,6)=fp fdinfo_recv(7,nc,6)=myrank_g fdinfo_recv(8,nc,6)=jrank fdinfo_recv(9,nc,6)=ns fdinfo_recv(10,nc,6)=ns do i=b3b+1,b3b+Md irank=map_grid_2_pinfo(a1b,a2b,i,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 ip=i end if fdinfo_recv(1,nc,6)=a1b fdinfo_recv(2,nc,6)=b1b fdinfo_recv(3,nc,6)=a2b fdinfo_recv(4,nc,6)=b2b fdinfo_recv(5,nc,6)=ip fdinfo_recv(6,nc,6)=i fdinfo_recv(7,nc,6)=myrank_g fdinfo_recv(8,nc,6)=jrank fdinfo_recv(9,nc,6)=(i-ip+1)ns end do deallocate( map_grid_2_pinfo ) n=maxval(n_neighbor)62 allocate( ireq(n) ) ; ireq(:)=0 nreq=0 do j=1,6 do i=1,n_neighbor(j) irank=fdinfo_recv(8,i,j) select case(j) case(1,3,5) itags=10(j+1)+i itagr=10j+i case(2,4,6) itags=10(j-1)+i itagr=10j+i end select nreq=nreq+1 call mpi_irecv(fdinfo_send(1,i,j),10,mpi_integer,irank & ,itagr,comm_grid,ireq(nreq),ierr) nreq=nreq+1 call mpi_isend(fdinfo_recv(1,i,j),10,mpi_integer,irank & ,itags,comm_grid,ireq(nreq),ierr) end do end do call mpi_waitall(nreq,ireq,istatus,ierr) deallocate( ireq ) do i=1,6 do n=1,n_neighbor(i) select case(i) case(1,2) fdinfo_send(1,n,i)=mod(fdinfo_send(1,n,i)+ML1,ML1) fdinfo_send(2,n,i)=mod(fdinfo_send(2,n,i)+ML1,ML1) case(3,4) fdinfo_send(3,n,i)=mod(fdinfo_send(3,n,i)+ML2,ML2) fdinfo_send(4,n,i)=mod(fdinfo_send(4,n,i)+ML2,ML2) case(5,6) fdinfo_send(5,n,i)=mod(fdinfo_send(5,n,i)+ML3,ML3) fdinfo_send(6,n,i)=mod(fdinfo_send(6,n,i)+ML3,ML3) end select end do end do call write_border( 80, " init_bcset_sol(end)" ) END SUBROUTINE init_bcset_sol SUBROUTINE allocate_bcset implicit none integer :: a1,a2,a3,b1,b2,b3 a1=Igrid(1,1)-Md ; a2=Igrid(1,2)-Md ; a3=Igrid(1,3)-Md b1=Igrid(2,1)+Md ; b2=Igrid(2,2)+Md ; b3=Igrid(2,3)+Md if ( allocated(www) ) deallocate(www) allocate( www(a1:b1,a2:b2,a3:b3,MB_d) ) www(:,:,:,:)=zero a1=maxval( n_neighbor(1:6) ) a2=maxval( fdinfo_send(9,1:a1,1:6) )MB_d a3=maxval( fdinfo_recv(9,1:a1,1:6) )*MB_d if ( allocated(sbuf) ) deallocate(sbuf) if ( allocated(rbuf) ) deallocate(rbuf) allocate( sbuf(a2,a1,6) ) allocate( rbuf(a3,a1,6) ) sbuf(:,:,:)=zero rbuf(:,:,:)=zero END SUBROUTINE allocate_bcset END MODULE bc_module	src/bc/bc_module.f90
subroutine plots_stop_cfmt(p,wt,wt2) c--- routine to provide a plotting interface that produces the plots c--- for both single top processes (2->2 and 2->3) c--- of Campbell, Frederix, Maltoni and Tramontano implicit none include 'constants.f' include 'jetlabel.f' include 'nplot.f' include 'process.f' include 'first.f' integer i,n,nplotmax,jet(2),jetswap,ibbar,inotb,ilight1,ilight2 double precision p(mxpart,4),wt,wt2,getet, . pttop,etatop,ytop,bwgt, . pt,etarap,yrap,ptthree,etarapthree,yrapthree, . wtbbar,wtnotb,wtlight1,wtlight2, . wtbbar2,wtnotb2,wtlight12,wtlight22, . ptmin,ptmax,ptbin,rapmin,rapmax,rapbin character4 tag logical jetmerge common/jetmerge/jetmerge common/btagging/bwgt common/nplotmax/nplotmax !$omp threadprivate(/jetmerge/) ccccc!$omp threadprivate(/nplotmax/) c--- on the first call, initialize histograms if (first) then tag='book' pttop=-1d0 etatop=1d3 ytop=1d3 ibbar=6 inotb=7 ilight1=6 ilight2=7 goto 99 else tag='plot' endif c--- check that this routine is being used for one of the envisaged c--- processes and, if so, initialize variables accordingly if (case .eq. 'bq_tpq') then if (jets .gt. 0) then do i=1,jets jet(i)=5+i ! jets start with parton 6 when removebr=.true. enddo pttop=ptthree(3,4,5,p) etatop=etarapthree(3,4,5,p) ytop=yrapthree(3,4,5,p) endif elseif (case .eq. 'qg_tbq') then if (jets .gt. 0) then do i=1,jets jet(i)=4+i ! jets start with parton 5 enddo pttop=pt(3,p) etatop=etarap(3,p) ytop=yrap(3,p) endif else write(6,) 'This plotting routine is not suitable for' write(6,) 'the process that you are calculating.' stop endif c--- there are at most two jets; reorder them according to pt if two if (jets .eq. 2) then if (pt(jet(2),p) .gt. pt(jet(1),p)) then jetswap=jet(1) jet(1)=jet(2) jet(2)=jetswap endif endif c--- initialize all variabels to zero ibbar=0 inotb=0 ilight1=0 ilight2=0 c--- Extract index to b~ (b for t~) in the 2->2 process c--- Events should be plotted with weight = wtbwgt instead of just wt c--- (adapted from original code in nplotter.f by Z. Sullivan) if (case .eq. 'bq_tpq') then c--- 1) Ascertain the identity of the jets if (jets .gt. 0) then c--- There are 2 cases: c--- If no merging, then only if jetlabel(i)=='pp' is it the b~. do i=1,jets if (jetlabel(jet(i)-5).eq.'pp') then ibbar=jet(i) elseif (jetlabel(jet(i)-5).eq.'qj') then inotb=jet(i) endif enddo c--- If merging occurred, then it matters whether the merged c--- jet was already a bq or not. if (jetmerge) then ibbar=jet(1) ! b~ was merged into jet(1) endif endif c--- 2) Assign weights for histogramming c--- there are three cases if (jets .eq. 1) then if (jetlabel(1) .eq. 'qj') then c--- 1) only one jet, that is definitely not a b c--- jetlabel = (qj) ibbar=0 c inotb already set above wtnotb=wt wtnotb2=wt2 elseif (jetlabel(1) .eq. 'pp') then c--- 2) only one jet, that could be a b c--- jetlabel = (pp) c ibbar already set above inotb=ibbar wtbbar=wtbwgt wtnotb=wt(1d0-bwgt) wtbbar2=wt2bwgt2 wtnotb2=wt2(1d0-bwgt)*2 endif c--- 3) two jets, one of which could be a b c--- jetlabel = (qj,pp) OR (pp,qj) elseif (jets .eq. 2) then c ibbar already set above c inotb already set above wtbbar=wtbwgt wtnotb=wtbwgt wtbbar2=wt2bwgt*2 wtnotb2=wt2bwgt*2 ilight1=jet(1) ! they are ordered according to pt ilight2=jet(2) ! they are ordered according to pt wtlight1=wt(1d0-bwgt) wtlight2=wtlight1 wtlight12=wt2(1d0-bwgt)2 wtlight22=wtlight12 elseif (jets .eq. 0) then c--- nothing to set: all variables=0, only occurs when notag=1 continue else write(6,) 'Error: there should be 1 or 2 jets, instead ',jets stop endif endif c--- Simpler manipulations for the 2->3 process if (case .eq. 'qg_tbq') then ibbar=4 wtbbar=wt wtbbar2=wt2 if (jets .gt. 0) then ilight1=jet(1) wtlight1=wt wtlight12=wt2 endif if (jets .gt. 1) then ilight2=jet(2) wtlight2=wt wtlight22=wt2 endif c--- inotb should remain equal to zero endif 99 continue n=1 c--- fill plots c--- available veriables are c--- pttop,eta,ytop: pt, pseudo-rapidity and rapidity of the top quark call bookplot(n,tag,'pt(top) ',pttop,wt,wt2,0d0,200d0,5d0,'log') n=n+1 call bookplot(n,tag,'eta(top)',etatop,wt,wt2,-8d0,8d0,0.5d0,'lin') n=n+1 call bookplot(n,tag,'y(top) ',ytop,wt,wt2,-8d0,8d0,0.5d0,'lin') n=n+1 c--- more complicated procedure for these plots, due to 2->2 process c--- pt and rapidity of the b-quark and other jets c--- Note that the order is important (due to histogram finalizing): c--- all plots for jet 1, all for bottom quark, all for jet 2 c--- set the ranges and bin sizes here ptmin=0d0 ptmax=200d0 ptbin=2d0 rapmin=-5d0 rapmax=+5d0 rapbin=0.2d0 c--- 1) leading jet that isn't a b c--- first account for events with only one non b jet (always occurs) c--- (always occurs, except if notag=1) c--- [pt] if (inotb .ne. 0) then call bookplot(n,tag,'pt(jet 1)', . pt(inotb,p),wtnotb,wtnotb2,ptmin,ptmax,ptbin,'log') endif c--- then account for events with two non b jets (only if ilight1>0) if (ilight1 .ne. 0) then call bookplot(n,tag,'pt(jet 1)', . pt(ilight1,p),wtlight1,wtlight12,ptmin,ptmax,ptbin,'log') endif n=n+1 c--- [rapidity] if (inotb .ne. 0) then call bookplot(n,tag,'eta(jet 1)', . etarap(inotb,p),wtnotb,wtnotb2,rapmin,rapmax,rapbin,'lin') endif c--- then account for events with two non b jets (only if ilight1>0) if (ilight1 .ne. 0) then call bookplot(n,tag,'eta(jet 1)', . etarap(ilight1,p),wtlight1,wtlight12,rapmin,rapmax,rapbin,'lin') endif n=n+1 c--- 2) b jet (only if ibbar>0) c--- [pt] if (ibbar .ne. 0) then call bookplot(n,tag,'pt(bottom)', . pt(ibbar,p),wtbbar,wtbbar2,ptmin,ptmax,ptbin,'log') endif n=n+1 c--- [pt] with \|rapidity\| < 2.8 (plot for CDF) if (ibbar .ne. 0) then if ((abs(etarap(ibbar,p)) .lt. 2.8d0).or.(tag .eq. 'book')) then call bookplot(n,tag,'pt(bottom) with \|eta(bottom)\| < 2.8', . pt(ibbar,p),wtbbar,wtbbar2,ptmin,ptmax,ptbin,'log') endif endif n=n+1 c--- [rapidity] if (ibbar .ne. 0) then call bookplot(n,tag,'eta(bottom)', . etarap(ibbar,p),wtbbar,wtbbar2,rapmin,rapmax,rapbin,'lin') endif n=n+1 c--- [rapidity] < 2.8 and pt > 20 GeV (plot for acceptance in CDF) if (ibbar .ne. 0) then if ((pt(ibbar,p) .gt. 20d0).or.(tag .eq. 'book')) then call bookplot(n,tag,'eta(bottom) with pt(bottom)>20 GeV', . etarap(ibbar,p),wtbbar,wtbbar2,-2.8d0,2.801d0,rapbin,'lin') endif endif n=n+1 c--- [rapidity] < 2.8 and pt > 20 GeV (plot for acceptance in CDF) if (ibbar .ne. 0) then if ((getet(p(ibbar,4),p(ibbar,1),p(ibbar,2),p(ibbar,3)).gt.20d0) . .or.(tag .eq. 'book')) then call bookplot(n,tag,'eta(bottom) with Et(bottom)>20 GeV', . etarap(ibbar,p),wtbbar,wtbbar2,-2.8d0,2.801d0,rapbin,'lin') endif endif n=n+1 c--- 3) subleading jet that isn't a b (only if ilight2>0) c--- [pt] if (ilight2 .ne. 0) then call bookplot(n,tag,'pt(jet 2)', . pt(ilight2,p),wtlight2,wtlight22,ptmin,ptmax,ptbin,'log') endif n=n+1 c--- [rapidity] if (ilight2 .ne. 0) then call bookplot(n,tag,'eta(jet 2)', . etarap(ilight2,p),wtlight2,wtlight22,rapmin,rapmax,rapbin,'lin') endif n=n+1 c--- copied from nplotter.f n=n-1 if (n .gt. maxhisto) then write(6,) 'WARNING - TOO MANY HISTOGRAMS!' write(6,) n,' > ',maxhisto,', which is the built-in maximum.' write(6,) 'To use more histograms, change the value of the' write(6,) 'constant MAXHISTO in src/Inc/nplot.f then do:' write(6,) write(6,) ' make clean; make to recompile from scratch.' write(6,*) stop endif c--- set the maximum number of plots, on the first call if (first) then first=.false. nplotmax=n endif return end	MCFM-JHUGen/src/User/plots_stop_cfmt.f
subroutine interp2(x,y,v,n1,n2,a,b,NZ) implicit none integer4::n1,n2; integer4,dimension(1)::sx,sy; real8(n2,n1)::v; real8(n1):: x; real8(n2):: y; real8(1,1):: NZ1,v1,v2,v3,v4,v5; real8(1):: x1,x2,x3,y1,y2,y3 real8::a,b,NZ sx=minloc(abs(x-a));sy=minloc(abs(y-b)); y1=y(sy);x1=x(sx); y2=y(sy-1);x2=x(sx-1);y3=y(sy+1);x3=x(sx+1); v1=v(sy,sx);v2=v(sy,sx-1);v3=v(sy-1,sx);v4=v(sy+1,sx); v5=v(sy,sx+1); if((y1(1)>b).AND.(x1(1)>a))then NZ1=v1(1,1)-(v1(1,1)-v2(1,1))/(x1(1)-x2(1))(x1(1)-a)& &-(v1(1,1)-v3(1,1))/(y1(1)-y2(1))(y1(1)-b); else if((y1(1)<=b).AND.(x1(1)>a))then NZ1=v1(1,1)-(v1(1,1)-v2(1,1))/(x1(1)-x2(1))(x1(1)-a)& &-(v4(1,1)-v1(1,1))/(y3(1)-y1(1))(y1(1)-b); else if(y1(1)>b.AND.x1(1)<=a)then NZ1=v1(1,1)-(v5(1,1)-v1(1,1))/(x3(1)-x1(1))(x1(1)-a)& &-(v1(1,1)-v3(1,1))/(y1(1)-y2(1))(y1(1)-b); else NZ1=v1(1,1)-(v5(1,1)-v1(1,1))/(x3(1)-x1(1))(x1(1)-a)& &-(v4(1,1)-v1(1,1))/(y3(1)-y1(1))(y1(1)-b); end if NZ=NZ1(1,1); return; end subroutine	11/mathlib/interp2.f90
! { dg-do compile } ! Checks the fix for PR33241, in which the assumed character ! length of the parameter was never filled in with that of ! the initializer. ! ! Contributed by Victor Prosolin <[email protected]> ! PROGRAM fptest IMPLICIT NONE CHARACTER (LEN=), DIMENSION(1), PARAMETER :: var = 'a' CALL parsef (var) contains SUBROUTINE parsef (Var) IMPLICIT NONE CHARACTER (LEN=), DIMENSION(:), INTENT(in) :: Var END SUBROUTINE parsef END PROGRAM fptest	validation_tests/llvm/f18/gfortran.dg/char_length_10.f90
subroutine amrex_fort_avg_nd_to_cc (lo, hi, ncomp, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & nd, ndl1, ndl2, ndl3, ndh1, ndh2, ndh3 ) bind(c) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3), ncomp integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 integer :: ndl1, ndl2, ndl3, ndh1, ndh2, ndh3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3, ncomp) real(amrex_real) :: nd(ndl1:ndh1, ndl2:ndh2, ndl3:ndh3, ncomp) ! Local variables integer :: i,j,k,n do n = 1, ncomp do k=lo(3),hi(3) do j=lo(2),hi(2) do i=lo(1),hi(1) cc(i,j,k,n) = 0.125_amrex_real * ( nd(i,j ,k ,n) + nd(i+1,j ,k ,n) & + nd(i,j+1,k ,n) + nd(i+1,j+1,k ,n) & + nd(i,j ,k+1,n) + nd(i+1,j ,k+1,n) & + nd(i,j+1,k+1,n) + nd(i+1,j+1,k+1,n) ) end do end do end do end do end subroutine amrex_fort_avg_nd_to_cc ! ************************************************************************************* ! subroutine bl_avg_eg_to_cc ! ************************************************************************************* subroutine bl_avg_eg_to_cc (lo, hi, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & Ex, Exl1, Exl2, Exl3, Exh1, Exh2, Exh3, & Ey, Eyl1, Eyl2, Eyl3, Eyh1, Eyh2, Eyh3, & Ez, Ezl1, Ezl2, Ezl3, Ezh1, Ezh2, Ezh3) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3) integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 integer :: Exl1, Exl2, Exl3, Exh1, Exh2, Exh3 integer :: Eyl1, Eyl2, Eyl3, Eyh1, Eyh2, Eyh3 integer :: Ezl1, Ezl2, Ezl3, Ezh1, Ezh2, Ezh3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3, 3) real(amrex_real) :: Ex(Exl1:Exh1, Exl2:Exh2, Exl3:Exh3) real(amrex_real) :: Ey(Eyl1:Eyh1, Eyl2:Eyh2, Eyl3:Eyh3) real(amrex_real) :: Ez(Ezl1:Ezh1, Ezl2:Ezh2, Ezl3:Ezh3) ! Local variables integer :: i,j,k do k=lo(3),hi(3) do j=lo(2),hi(2) do i=lo(1),hi(1) cc(i,j,k,1) = 0.25d0 * ( Ex(i,j,k) + Ex(i,j+1,k) + Ex(i,j,k+1) + Ex(i,j+1,k+1) ) cc(i,j,k,2) = 0.25d0 * ( Ey(i,j,k) + Ey(i+1,j,k) + Ey(i,j,k+1) + Ey(i+1,j,k+1) ) cc(i,j,k,3) = 0.25d0 * ( Ez(i,j,k) + Ez(i+1,j,k) + Ez(i,j+1,k) + Ez(i+1,j+1,k) ) enddo enddo enddo end subroutine bl_avg_eg_to_cc ! ************************************************************************************* ! subroutine bl_avg_fc_to_cc ! ************************************************************************************* subroutine bl_avg_fc_to_cc (lo, hi, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & fx, fxl1, fxl2, fxl3, fxh1, fxh2, fxh3, & fy, fyl1, fyl2, fyl3, fyh1, fyh2, fyh3, & fz, fzl1, fzl2, fzl3, fzh1, fzh2, fzh3, & dx, problo, coord_type) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3), coord_type integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 integer :: fxl1, fxl2, fxl3, fxh1, fxh2, fxh3 integer :: fyl1, fyl2, fyl3, fyh1, fyh2, fyh3 integer :: fzl1, fzl2, fzl3, fzh1, fzh2, fzh3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3, 3) real(amrex_real) :: fx(fxl1:fxh1, fxl2:fxh2, fxl3:fxh3) real(amrex_real) :: fy(fyl1:fyh1, fyl2:fyh2, fyl3:fyh3) real(amrex_real) :: fz(fzl1:fzh1, fzl2:fzh2, fzl3:fzh3) real(amrex_real) :: dx(3), problo(3) ! Local variables integer :: i,j,k do k=lo(3),hi(3) do j=lo(2),hi(2) do i=lo(1),hi(1) cc(i,j,k,1) = 0.5d0 * ( fx(i,j,k) + fx(i+1,j,k) ) cc(i,j,k,2) = 0.5d0 * ( fy(i,j,k) + fy(i,j+1,k) ) cc(i,j,k,3) = 0.5d0 * ( fz(i,j,k) + fz(i,j,k+1) ) enddo enddo enddo end subroutine bl_avg_fc_to_cc ! ************************************************************************************* ! subroutine bl_avg_cc_to_fc ! ************************************************************************************* subroutine bl_avg_cc_to_fc (xlo, xhi, ylo, yhi, zlo, zhi, & fx, fxl1, fxl2, fxl3, fxh1, fxh2, fxh3, & fy, fyl1, fyl2, fyl3, fyh1, fyh2, fyh3, & fz, fzl1, fzl2, fzl3, fzh1, fzh2, fzh3, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & dx, problo, coord_type) use amrex_fort_module, only : amrex_real implicit none integer :: xlo(3),xhi(3), ylo(3),yhi(3), zlo(3), zhi(3), coord_type integer :: fxl1, fxl2, fxl3, fxh1, fxh2, fxh3 integer :: fyl1, fyl2, fyl3, fyh1, fyh2, fyh3 integer :: fzl1, fzl2, fzl3, fzh1, fzh2, fzh3 integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3) real(amrex_real) :: fx(fxl1:fxh1, fxl2:fxh2, fxl3:fxh3) real(amrex_real) :: fy(fyl1:fyh1, fyl2:fyh2, fyl3:fyh3) real(amrex_real) :: fz(fzl1:fzh1, fzl2:fzh2, fzl3:fzh3) real(amrex_real) :: dx(3), problo(3) ! Local variables integer :: i,j,k do k=xlo(3),xhi(3) do j=xlo(2),xhi(2) do i=xlo(1),xhi(1) fx(i,j,k) = 0.5d0 * (cc(i-1,j,k) + cc(i,j,k)) enddo enddo end do do k=ylo(3),yhi(3) do j=ylo(2),yhi(2) do i=ylo(1),yhi(1) fy(i,j,k) = 0.5d0 * (cc(i,j-1,k) + cc(i,j,k)) enddo enddo end do do k=zlo(3),zhi(3) do j=zlo(2),zhi(2) do i=zlo(1),zhi(1) fz(i,j,k) = 0.5d0 * (cc(i,j,k-1) + cc(i,j,k)) enddo enddo end do end subroutine bl_avg_cc_to_fc ! ************************************************************************************* ! subroutine bl_avgdown_faces ! ************************************************************************************* subroutine bl_avgdown_faces (lo, hi, & f, f_l1, f_l2, f_l3, f_h1, f_h2, f_h3, & c, c_l1, c_l2, c_l3, c_h1, c_h2, c_h3, & ratio,idir,nc) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3) integer :: f_l1, f_l2, f_l3, f_h1, f_h2, f_h3 integer :: c_l1, c_l2, c_l3, c_h1, c_h2, c_h3 integer :: ratio(3), idir, nc real(amrex_real) :: f(f_l1:f_h1, f_l2:f_h2, f_l3:f_h3, nc) real(amrex_real) :: c(c_l1:c_h1, c_l2:c_h2, c_l3:c_h3, nc) ! Local variables integer :: i, j, k, n, facx, facy, facz, iref, jref, kref, ii, jj, kk real(amrex_real) :: facInv facx = ratio(1) facy = ratio(2) facz = ratio(3) if (idir .eq. 0) then facInv = 1.d0 / (facyfacz) do n = 1, nc do k = lo(3), hi(3) kk = k facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do kref = 0, facz-1 do jref = 0, facy-1 c(i,j,k,n) = c(i,j,k,n) + f(ii,jj+jref,kk+kref,n) end do end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else if (idir .eq. 1) then facInv = 1.d0 / (facxfacz) do n = 1, nc do k = lo(3), hi(3) kk = k facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do kref = 0, facz-1 do iref = 0, facx-1 c(i,j,k,n) = c(i,j,k,n) + f(ii+iref,jj,kk+kref,n) end do end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else facInv = 1.d0 / (facxfacy) do n = 1, nc do k = lo(3), hi(3) kk = k facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do jref = 0, facy-1 do iref = 0, facx-1 c(i,j,k,n) = c(i,j,k,n) + f(ii+iref,jj+jref,kk,n) end do end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do end if end subroutine bl_avgdown_faces ! ************************************************************************************* ! subroutine bl_avgdown_faces ! ************************************************************************************* subroutine bl_avgdown_edges (lo, hi, & f, f_l1, f_l2, f_l3, f_h1, f_h2, f_h3, & c, c_l1, c_l2, c_l3, c_h1, c_h2, c_h3, & ratio,idir,nc) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3) integer :: f_l1, f_l2, f_l3, f_h1, f_h2, f_h3 integer :: c_l1, c_l2, c_l3, c_h1, c_h2, c_h3 integer :: ratio(3), idir, nc real(amrex_real) :: f(f_l1:f_h1, f_l2:f_h2, f_l3:f_h3, nc) real(amrex_real) :: c(c_l1:c_h1, c_l2:c_h2, c_l3:c_h3, nc) ! Local variables integer :: i, j, k, n, facx, facy, facz, iref, jref, kref, ii, jj, kk real(amrex_real) :: facInv facx = ratio(1) facy = ratio(2) facz = ratio(3) if (idir .eq. 0) then facInv = 1.d0 / facx do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do iref = 0, facx-1 c(i,j,k,n) = c(i,j,k,n) + f(ii+iref,jj,kk,n) end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else if (idir .eq. 1) then facInv = 1.d0 / facy do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do jref = 0, facy-1 c(i,j,k,n) = c(i,j,k,n) + f(ii,jj+jref,kk,n) end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else facInv = 1.d0 / facz do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do kref = 0, facz-1 c(i,j,k,n) = c(i,j,k,n) + f(ii,jj,kk+kref,n) end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do end if end subroutine bl_avgdown_edges ! ************************************************************************************* ! subroutine bl_avgdown ! ************************************************************************************* subroutine bl_avgdown (lo,hi,& fine,f_l1,f_l2,f_l3,f_h1,f_h2,f_h3, & crse,c_l1,c_l2,c_l3,c_h1,c_h2,c_h3, & lrat,ncomp) use amrex_fort_module, only : amrex_real implicit none integer f_l1,f_l2,f_l3,f_h1,f_h2,f_h3 integer c_l1,c_l2,c_l3,c_h1,c_h2,c_h3 integer lo(3), hi(3) integer lrat(3), ncomp real(amrex_real) crse(c_l1:c_h1,c_l2:c_h2,c_l3:c_h3,ncomp) real(amrex_real) fine(f_l1:f_h1,f_l2:f_h2,f_l3:f_h3,ncomp) integer :: i, j, k, ii, jj, kk, n, iref, jref, kref real(amrex_real) :: volfrac volfrac = 1.d0 / dble(lrat(1)lrat(2)lrat(3)) do n = 1, ncomp do k = lo(3), hi(3) kk = k * lrat(3) do j = lo(2), hi(2) jj = j * lrat(2) do i = lo(1), hi(1) ii = i * lrat(1) crse(i,j,k,n) = 0.d0 do kref = 0, lrat(3)-1 do jref = 0, lrat(2)-1 do iref = 0, lrat(1)-1 crse(i,j,k,n) = crse(i,j,k,n) + fine(ii+iref,jj+jref,kk+kref,n) end do end do end do crse(i,j,k,n) = volfrac * crse(i,j,k,n) end do end do end do end do end subroutine bl_avgdown subroutine bl_avgdown_nodes (lo,hi,& fine,f_l1,f_l2,f_l3,f_h1,f_h2,f_h3, & crse,c_l1,c_l2,c_l3,c_h1,c_h2,c_h3, & lrat,ncomp) use amrex_fort_module, only : amrex_real implicit none integer f_l1,f_l2,f_l3,f_h1,f_h2,f_h3 integer c_l1,c_l2,c_l3,c_h1,c_h2,c_h3 integer lo(3), hi(3) integer lrat(3), ncomp real(amrex_real) crse(c_l1:c_h1,c_l2:c_h2,c_l3:c_h3,ncomp) real(amrex_real) fine(f_l1:f_h1,f_l2:f_h2,f_l3:f_h3,ncomp) integer :: i, j, k, ii, jj, kk, n do n = 1, ncomp do k = lo(3), hi(3) kk = k * lrat(3) do j = lo(2), hi(2) jj = j * lrat(2) do i = lo(1), hi(1) ii = i * lrat(1) crse(i,j,k,n) = fine(ii,jj,kk,n) end do end do end do end do end subroutine bl_avgdown_nodes subroutine amrex_compute_divergence (lo, hi, divu, dlo, dhi, u, ulo, uhi, & v, vlo, vhi, w, wlo, whi, dxinv) bind(c) use amrex_fort_module, only : amrex_real implicit none integer, dimension(3), intent(in) :: lo, hi, dlo, dhi, ulo, uhi, vlo, vhi, wlo, whi real(amrex_real), intent(inout) :: divu(dlo(1):dhi(1),dlo(2):dhi(2),dlo(3):dhi(3)) real(amrex_real), intent(in ) :: u(ulo(1):uhi(1),ulo(2):uhi(2),ulo(3):uhi(3)) real(amrex_real), intent(in ) :: v(vlo(1):vhi(1),vlo(2):vhi(2),vlo(3):vhi(3)) real(amrex_real), intent(in ) :: w(wlo(1):whi(1),wlo(2):whi(2),wlo(3):whi(3)) real(amrex_real), intent(in) :: dxinv(3) integer :: i,j,k do k = lo(3), hi(3) do j = lo(2), hi(2) do i = lo(1), hi(1) divu(i,j,k) = dxinv(1) * (u(i+1,j,k)-u(i,j,k)) & + dxinv(2) * (v(i,j+1,k)-v(i,j,k)) & + dxinv(3) * (w(i,j,k+1)-w(i,j,k)) end do end do end do end subroutine amrex_compute_divergence	Src/Base/AMReX_MultiFabUtil_3d.f90
! RUN: bbc %s -emit-fir --canonicalize -o - \| FileCheck %s ! CHECK-LABEL pause_test subroutine pause_test() ! CHECK: fir.call @_Fortran{{.*}}PauseStatement() ! CHECK-NEXT: return pause end subroutine	flang/test/Lower/pause-statement.f90
SUBROUTINE SKALE (N, MSTAR, KD, Z, XI, SCALE, DSCALE) C C******************************************************************** C C purpose C provide a proper scaling of the state variables, used C to control the damping factor for a newton iteration [2]. C C variables C C n = number of mesh subintervals C mstar = number of unknomns in z(u(x)) C kd = number of unknowns in dmz C z = the global unknown vector C xi = the current mesh C scale = scaling vector for z C dscale = scaling vector for dmz C C******************************************************************** C IMPLICIT REAL8 (A-H,O-Z) DIMENSION Z(MSTAR,1), SCALE(MSTAR,1), DSCALE(KD,1) DIMENSION XI(1), BASM(5) C COMMON /COLORD/ K, NCOMP, ID1, ID2, MMAX, M(20) C BASM(1) = 1.D0 DO 50 J=1,N IZ = 1 H = XI(J+1) - XI(J) DO 10 L = 1, MMAX BASM(L+1) = BASM(L) H / DFLOAT(L) 10 CONTINUE DO 40 ICOMP = 1, NCOMP SCAL = (DABS(Z(IZ,J)) + DABS(Z(IZ,J+1))) * .5D0 + 1.D0 MJ = M(ICOMP) DO 20 L = 1, MJ SCALE(IZ,J) = BASM(L) / SCAL IZ = IZ + 1 20 CONTINUE SCAL = BASM(MJ+1) / SCAL DO 30 IDMZ = ICOMP, KD, NCOMP DSCALE(IDMZ,J) = SCAL 30 CONTINUE 40 CONTINUE 50 CONTINUE NP1 = N + 1 DO 60 IZ = 1, MSTAR SCALE(IZ,NP1) = SCALE(IZ,N) 60 CONTINUE RETURN END	src/f2cl/packages/colnew/skale.f
program simple_example use fregex implicit none type(regex_t) :: re type(match_t) :: match character(:), allocatable :: string character(:), allocatable :: pattern ! Operations pattern = "(.+)([\+\-\\/]{1})(.+)" string = "1/sin(x)" call re % compile(pattern) call re % match(string) if (size(re % matches) > 0) then match = re % matches(1) ! Gets the first match print, "string: ", string print, "pattern: ", pattern print, "First Group: ", match % groups(1) % content ! 1 print, "Second Group: ", match % groups(2) % content ! / print, "Third Group: ", match % groups(3) % content ! sin(x) end if end program	app/simple_example.f90
subroutine nsc_pr_iniunk(a) !DESCRIPTION ! This routine sets up the initial conditions for the pressure, ! velocity and temperature fields. ! If this is a restart, initial conditions are loaded somewhere else ! but Dirichlet boundary conditions are still loaded here. !----------------------------------------------------------------------- use typre use Mod_NSCompressiblePrimitive use Mod_NSCompressibleSubroutines use Mod_NscExacso implicit none class(NSCompressiblePrimitiveProblem) :: a type(NscExacso) :: exacso integer(ip) :: icomp,ipoin,idime,ndime,npoin real(rp) :: energ,acvis,actco,accph,accvh real(rp) :: expre, extem !Exact Values real(rp), allocatable :: exprg(:),exvel(:),exveg(:,:),exteg(:) !Nodal coordinates real(rp), pointer :: coord(:) => NULL() call a%Mesh%GetNdime(ndime) call a%Mesh%GetNpoin(npoin) call a%GetPhysicalParameters(acvis,actco,accph,accvh) if(accph-accvh<zensi) then call runend('Nsc_iniunk: Gas constant is negative') end if do ipoin=1,npoin if((a%kfl_fixno(1,ipoin)==1) .or. (a%kfl_fixno(1,ipoin) == 0)) then a%press(ipoin,a%ncomp) = a%bvess(1,ipoin,1) end if if((a%kfl_fixno(ndime+2,ipoin)==1) .or. (a%kfl_fixno(ndime+2,ipoin)==0)) then a%tempe(ipoin,a%ncomp) = a%bvess(ndime+2,ipoin,1) end if a%densf(ipoin,1) = (a%press(ipoin,a%ncomp)+a%relpre)/((accph-accvh)(a%tempe(ipoin,a%ncomp)+a%reltem)) do idime=1,ndime if((a%kfl_fixno(idime+1,ipoin)==1) .or. (a%kfl_fixno(idime+1,ipoin) == 0)) then a%veloc(idime,ipoin,a%ncomp) = a%bvess(idime+1,ipoin,1) a%momen(idime,ipoin,1) = a%densf(ipoin,1)a%bvess(idime+1,ipoin,1) end if end do call nsc_ComputeEnergy(ndime,accvh,(a%tempe(ipoin,a%ncomp)+a%reltem),a%veloc(:,ipoin,a%ncomp),energ) a%energ(ipoin,1) = a%densf(ipoin,1)energ end do if(minval(a%densf(:,1))<(-zensi)) then call runend('Nsc_iniunk: Initial density is negative') end if if(a%kfl_incnd==1) then call runend('Nsc_iniunk: Initial conditions not implemented') end if if(a%kfl_exacs/=0) then ! Allocate exact components call a%Memor%alloc(ndime,exprg,'exprg','nsc_iniunk') call a%Memor%alloc(ndime,exvel,'exvel','nsc_iniunk') call a%Memor%alloc(ndime,ndime,exveg,'exveg','nsc_iniunk') call a%Memor%alloc(ndime,exteg,'exteg','nsc_iniunk') do ipoin = 1,npoin call a%Mesh%GetPointCoord(ipoin,coord) call exacso%nsc_ComputeSolution(ndime,coord,a) call exacso%nsc_GetPressure(ndime,expre,exprg) call exacso%nsc_GetVelocity(ndime,exvel,exveg) call exacso%nsc_GetTemperature(ndime,extem,exteg) a%press(ipoin,a%ncomp) = expre do idime=1,ndime a%veloc(idime,ipoin,a%ncomp) = exvel(idime) end do a%tempe(ipoin,a%ncomp) = extem end do ! Allocate exact components call a%Memor%dealloc(ndime,exprg,'exprg','nsc_iniunk') call a%Memor%dealloc(ndime,exvel,'exvel','nsc_iniunk') call a%Memor%dealloc(ndime,ndime,exveg,'exveg','nsc_iniunk') call a%Memor%dealloc(ndime,exteg,'exteg','nsc_iniunk') end if !Assign var(n,i,) <-- var(n-1,,), initial guess after initialization (or reading restart) do icomp = 1,a%ncomp-1 a%press(1:npoin,icomp) = a%press(1:npoin,a%ncomp) a%veloc(1:ndime,1:npoin,icomp) = a%veloc(1:ndime,1:npoin,a%ncomp) a%tempe(1:npoin,icomp) = a%tempe(1:npoin,a%ncomp) enddo call a%Ifconf end subroutine nsc_pr_iniunk	Sources/modules/nscomp/PrimitiveUnknowns/nsc_pr_iniunk.f90
less_toxic(y1,h1). less_toxic(hh1,w1). less_toxic(ee1,b1). less_toxic(m1,cc1). less_toxic(bb1,z1). less_toxic(ff1,v1). less_toxic(ll1,b1). less_toxic(o1,jj1). less_toxic(j1,dd1). less_toxic(n1,cc1). less_toxic(w1,aa1). less_toxic(q1,l1). less_toxic(m1,l1). less_toxic(bb1,aa1). less_toxic(b1,i1). less_toxic(ee1,l1). less_toxic(ee1,jj1). less_toxic(m1,w1). less_toxic(q1,d1). less_toxic(cc1,l1). less_toxic(kk1,v1). less_toxic(n1,t1). less_toxic(b1,d1). less_toxic(o1,a1). less_toxic(b1,aa1). less_toxic(f1,d1). less_toxic(j1,i1). less_toxic(n1,aa1). less_toxic(n1,u1). less_toxic(o1,i1). less_toxic(o1,e1). less_toxic(w1,v1). less_toxic(ff1,t1). less_toxic(cc1,z1). less_toxic(g1,l1). less_toxic(o1,l1). less_toxic(y1,p1). less_toxic(ii1,t1). less_toxic(x1,f1). less_toxic(hh1,aa1). less_toxic(bb1,h1). less_toxic(hh1,e1). less_toxic(k1,cc1). less_toxic(m1,b1). less_toxic(kk1,z1). less_toxic(ee1,e1). less_toxic(s1,t1). less_toxic(o1,d1). less_toxic(ll1,jj1). less_toxic(r1,l1). less_toxic(ff1,e1). less_toxic(i1,c1). less_toxic(g1,jj1). less_toxic(bb1,dd1). less_toxic(ff1,d1). less_toxic(w1,h1). less_toxic(a1,p1). less_toxic(p1,c1). less_toxic(j1,b1). less_toxic(ee1,u1). less_toxic(cc1,f1). less_toxic(ll1,l1). less_toxic(ff1,w1). less_toxic(f1,c1). less_toxic(j1,c1). less_toxic(g1,aa1). less_toxic(n1,f1). less_toxic(x1,l1). less_toxic(b1,u1). less_toxic(kk1,c1). less_toxic(cc1,u1). less_toxic(o1,w1). less_toxic(y1,cc1). less_toxic(ee1,t1). less_toxic(b1,h1). less_toxic(ee1,h1). less_toxic(b1,p1). less_toxic(x1,cc1). less_toxic(ee1,dd1). less_toxic(j1,u1). less_toxic(x1,v1). less_toxic(o1,u1). less_toxic(r1,cc1). less_toxic(j1,t1). less_toxic(g1,v1). less_toxic(x1,u1). less_toxic(e1,p1). less_toxic(w1,dd1). less_toxic(ff1,a1). less_toxic(bb1,w1). less_toxic(ff1,aa1). less_toxic(bb1,v1). less_toxic(r1,z1). less_toxic(bb1,d1). less_toxic(ll1,cc1). less_toxic(y1,u1). less_toxic(s1,i1). less_toxic(k1,t1). less_toxic(kk1,cc1). less_toxic(o1,p1). less_toxic(k1,e1). less_toxic(y1,t1). less_toxic(n1,v1). less_toxic(ii1,i1). less_toxic(o1,v1). less_toxic(ee1,p1). less_toxic(x1,dd1). less_toxic(l1,f1). less_toxic(x1,aa1). less_toxic(j1,z1). less_toxic(j1,l1). less_toxic(a1,d1). less_toxic(cc1,aa1). less_toxic(hh1,u1). less_toxic(ff1,b1). less_toxic(s1,z1). less_toxic(r1,u1). less_toxic(ee1,d1). less_toxic(n1,jj1). less_toxic(y1,a1). less_toxic(s1,a1). less_toxic(hh1,dd1). less_toxic(ff1,p1). less_toxic(o1,cc1). less_toxic(k1,h1). less_toxic(w1,a1). less_toxic(q1,z1). less_toxic(q1,a1). less_toxic(m1,c1). less_toxic(kk1,w1). less_toxic(ff1,z1). less_toxic(cc1,t1). less_toxic(u1,d1). less_toxic(b1,e1). less_toxic(ll1,f1). less_toxic(kk1,l1). less_toxic(r1,t1). less_toxic(ll1,h1). less_toxic(cc1,jj1). less_toxic(hh1,t1). less_toxic(q1,cc1). less_toxic(ll1,w1). less_toxic(ii1,aa1). less_toxic(g1,u1). less_toxic(ii1,c1). less_toxic(ff1,dd1). less_toxic(hh1,l1). less_toxic(m1,e1). less_toxic(ee1,v1). less_toxic(bb1,u1). less_toxic(j1,d1). less_toxic(g1,dd1). less_toxic(ii1,a1). less_toxic(y1,dd1). less_toxic(q1,aa1). less_toxic(ii1,e1). less_toxic(k1,a1). less_toxic(cc1,i1). less_toxic(kk1,p1). less_toxic(s1,b1). less_toxic(ee1,cc1). less_toxic(x1,z1). less_toxic(x1,t1). less_toxic(r1,e1). less_toxic(y1,f1). less_toxic(o1,aa1). less_toxic(ee1,w1). less_toxic(bb1,a1). less_toxic(o1,t1). less_toxic(n1,h1). less_toxic(k1,l1). less_toxic(ll1,i1). less_toxic(k1,b1). less_toxic(q1,t1). less_toxic(k1,p1). less_toxic(b1,t1). less_toxic(q1,f1). less_toxic(dd1,d1). less_toxic(l1,c1). less_toxic(w1,f1). less_toxic(ii1,b1). less_toxic(kk1,t1). less_toxic(ii1,w1). less_toxic(g1,h1). less_toxic(bb1,c1). less_toxic(u1,c1). less_toxic(y1,d1). less_toxic(n1,dd1). less_toxic(b1,v1). less_toxic(aa1,c1). less_toxic(hh1,h1). less_toxic(s1,p1). less_toxic(g1,t1). less_toxic(y1,b1). less_toxic(n1,z1). less_toxic(hh1,z1). less_toxic(ll1,c1). less_toxic(e1,d1). less_toxic(r1,dd1). less_toxic(cc1,dd1). less_toxic(w1,d1). less_toxic(y1,v1). less_toxic(jj1,c1). less_toxic(r1,h1). less_toxic(hh1,c1). less_toxic(s1,d1). less_toxic(b1,c1). less_toxic(q1,w1). less_toxic(jj1,d1). less_toxic(a1,c1). less_toxic(m1,f1). less_toxic(s1,jj1). less_toxic(k1,d1). less_toxic(hh1,v1). less_toxic(bb1,f1). less_toxic(r1,aa1). less_toxic(ee1,i1). less_toxic(j1,a1). less_toxic(m1,d1). less_toxic(n1,w1). less_toxic(v1,c1). less_toxic(j1,e1). less_toxic(cc1,c1). less_toxic(aa1,p1). less_toxic(ii1,u1). less_toxic(m1,dd1). less_toxic(k1,u1). less_toxic(cc1,e1). less_toxic(ee1,aa1). less_toxic(hh1,p1). less_toxic(v1,d1). less_toxic(x1,a1). less_toxic(x1,b1). less_toxic(l1,d1). less_toxic(y1,w1). less_toxic(r1,d1). less_toxic(x1,e1). less_toxic(u1,f1). less_toxic(n1,p1). less_toxic(w1,z1). less_toxic(r1,a1). less_toxic(x1,jj1). less_toxic(j1,p1). less_toxic(s1,aa1). less_toxic(ll1,aa1). less_toxic(ll1,e1). less_toxic(s1,w1). less_toxic(m1,jj1). less_toxic(cc1,v1). less_toxic(kk1,i1). less_toxic(t1,f1). less_toxic(w1,l1). less_toxic(n1,d1). less_toxic(r1,b1). less_toxic(dd1,p1). less_toxic(kk1,d1). less_toxic(m1,a1). less_toxic(ll1,z1). less_toxic(g1,w1). less_toxic(kk1,u1). less_toxic(k1,jj1). less_toxic(t1,p1). less_toxic(h1,c1). less_toxic(cc1,p1). less_toxic(y1,l1). less_toxic(y1,jj1). less_toxic(w1,jj1). less_toxic(j1,v1). less_toxic(ll1,p1). less_toxic(w1,p1). less_toxic(k1,i1). less_toxic(s1,dd1). less_toxic(n1,a1). less_toxic(s1,l1). less_toxic(q1,p1). less_toxic(s1,f1). less_toxic(r1,v1). less_toxic(aa1,d1). less_toxic(x1,w1). less_toxic(ii1,dd1). less_toxic(bb1,p1). less_toxic(n1,c1). less_toxic(ff1,i1). less_toxic(p1,f1). less_toxic(hh1,jj1). less_toxic(b1,dd1). less_toxic(q1,e1). less_toxic(ll1,a1). less_toxic(v1,p1). less_toxic(r1,i1). less_toxic(n1,b1). less_toxic(ee1,c1). less_toxic(r1,jj1). less_toxic(hh1,d1). less_toxic(x1,d1). less_toxic(b1,z1). less_toxic(g1,c1). less_toxic(m1,aa1). less_toxic(ii1,v1). less_toxic(bb1,t1). less_toxic(n1,e1). less_toxic(b1,f1). less_toxic(ii1,z1). less_toxic(hh1,f1). less_toxic(ff1,u1). less_toxic(kk1,dd1). less_toxic(ii1,p1). less_toxic(j1,jj1). less_toxic(g1,b1). less_toxic(aa1,f1). less_toxic(g1,i1). less_toxic(i1,f1). less_toxic(q1,b1). less_toxic(r1,f1). less_toxic(ff1,cc1). less_toxic(m1,u1). less_toxic(g1,d1). less_toxic(y1,z1). less_toxic(ii1,d1). less_toxic(hh1,a1). less_toxic(n1,l1). less_toxic(j1,w1). less_toxic(s1,h1). less_toxic(t1,d1). less_toxic(q1,v1). less_toxic(ee1,z1). less_toxic(o1,dd1). less_toxic(z1,d1). less_toxic(bb1,jj1). less_toxic(y1,aa1). less_toxic(w1,kk1). less_toxic(v1,x1). less_toxic(f1,ee1). less_toxic(dd1,ll1). less_toxic(t1,q1). less_toxic(cc1,g1). less_toxic(h1,q1). less_toxic(i1,o1). less_toxic(h1,ff1). less_toxic(f1,m1). less_toxic(d1,k1). less_toxic(f1,i1). less_toxic(jj1,kk1). less_toxic(d1,p1). less_toxic(h1,b1). less_toxic(u1,ff1). less_toxic(a1,ii1). less_toxic(l1,ii1). less_toxic(a1,g1). less_toxic(e1,ii1). less_toxic(e1,j1). less_toxic(i1,cc1). less_toxic(p1,g1). less_toxic(cc1,m1). less_toxic(d1,ff1). less_toxic(w1,y1). less_toxic(c1,h1). less_toxic(p1,i1). less_toxic(u1,kk1). less_toxic(cc1,k1). less_toxic(l1,j1). less_toxic(d1,dd1). less_toxic(p1,z1). less_toxic(b1,y1). less_toxic(d1,ee1). less_toxic(t1,bb1). less_toxic(e1,kk1). less_toxic(p1,m1). less_toxic(p1,r1). less_toxic(u1,bb1). less_toxic(h1,m1). less_toxic(z1,r1). less_toxic(u1,b1). less_toxic(u1,ii1). less_toxic(b1,kk1). less_toxic(z1,ll1). less_toxic(a1,ll1). less_toxic(p1,a1). less_toxic(v1,kk1). less_toxic(c1,m1). less_toxic(c1,s1). less_toxic(i1,j1). less_toxic(t1,w1). less_toxic(t1,r1). less_toxic(v1,j1). less_toxic(f1,q1). less_toxic(dd1,n1). less_toxic(aa1,b1). less_toxic(f1,k1). less_toxic(f1,cc1). less_toxic(jj1,s1). less_toxic(jj1,g1). less_toxic(e1,k1). less_toxic(e1,ff1). less_toxic(f1,u1). less_toxic(jj1,y1). less_toxic(w1,n1). less_toxic(f1,p1). less_toxic(dd1,bb1). less_toxic(a1,q1). less_toxic(e1,b1). less_toxic(cc1,s1).	foldsCreator/files/datasets/alzheimer_toxic_0.2noisy/train9.f
---------------------------------------------------------------------- subroutine print_op_info(lulog,modestr,op_info) ---------------------------------------------------------------------- implicit none include 'mdef_operator_info.h' integer, intent(in) :: & lulog character(), intent(in) :: & modestr type(operator_info), intent(in) :: & op_info integer :: & idx type(operator_array), pointer :: & op_arr(:) type(me_list_array), pointer :: & mel_arr(:) select case(trim(modestr)) case('op','ops','operator','operators') op_arr => op_info%op_arr write(lulog,) 'Number of operators defined: ',op_info%nops write(lulog,'(x,40("-"))') write(lulog,) & ' idx op vtx blk current list' write(lulog,'(x,40("-"))') do idx = 1, op_info%nops write(lulog,'(2x,i3,a8,3x,i1,2x,i2,2x,a16)') & idx,trim(op_arr(idx)%op%name), & op_arr(idx)%op%njoined, op_arr(idx)%op%n_occ_cls, & trim(op_arr(idx)%op%assoc_list) end do write(lulog,'(x,40("-"))') case('mel','me_list','lists','ME-lists') mel_arr => op_info%mel_arr write(lulog,) 'Number of lists defined: ',op_info%nmels write(lulog,'(x,78("-"))') write(lulog,*) & ' idx list sym spn length op. '// & ' file' write(lulog,'(x,78("-"))') do idx = 1, op_info%nmels if (associated(mel_arr(idx)%mel%fhand)) then write(lulog,'(2x,i3,a16,2x,i1,x,i2,x,i12,x,a8,x,a29)') & idx,trim(mel_arr(idx)%mel%label), & mel_arr(idx)%mel%gamt, & mel_arr(idx)%mel%mst, & mel_arr(idx)%mel%len_op, & trim(mel_arr(idx)%mel%op%name), & trim(mel_arr(idx)%mel%fhand%name) else write(lulog,'(2x,i3,a16,2x,i1,x,i2,x,i12,a8)') & idx,trim(mel_arr(idx)%mel%label), & mel_arr(idx)%mel%gamt, & mel_arr(idx)%mel%mst, & mel_arr(idx)%mel%len_op, & trim(mel_arr(idx)%mel%op%name) end if end do write(lulog,'(x,78("-"))') end select return end	operators/print_op_info.f
!! Copyright (C) Stichting Deltares, 2012-2016. !! !! This program is free software: you can redistribute it and/or modify !! it under the terms of the GNU General Public License version 3, !! as published by the Free Software Foundation. !! !! This program is distributed in the hope that it will be useful, !! but WITHOUT ANY WARRANTY; without even the implied warranty of !! MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the !! GNU General Public License for more details. !! !! You should have received a copy of the GNU General Public License !! along with this program. If not, see <http://www.gnu.org/licenses/>. !! !! contact: [email protected] !! Stichting Deltares !! P.O. Box 177 !! 2600 MH Delft, The Netherlands !! !! All indications and logos of, and references to registered trademarks !! of Stichting Deltares remain the property of Stichting Deltares. All !! rights reserved. subroutine read_sub_procgrid( notot , syname , GridPs , isysg , ierr ) ! Deltares Software Centre !>\file !> read the SUBSTANCE_PROCESSGRID information and update the isysg array !> !> several input possibilities exist: !> - ALL indicates that all substances should work on the grid that will be mentioned !> - a series of substances IDs indicating that those will work on the mentioned grid !> then a grid name is required, to specify the grid where the substances work on. ! Created : Somewhere 2003 by Jan van Beek as layerd bed special ! Modified : May 2011 by Leo Postma merge with standard version ! global declarations use grids use rd_token ! for the reading of tokens use timers ! performance timers implicit none ! declaration of arguments integer , intent(in ) :: notot !< nr of substances character(20) , intent(in ) :: syname(notot) !< substance names type(GridPointerColl) , intent(in ) :: GridPs !< collection of all grid definitions integer , intent(inout) :: isysg (notot) !< process gridnr of substances integer , intent(inout) :: ierr !< cummulative error count ! local declarations integer :: itoken ! integer token from input integer :: idummy ! dummy which content is not used real :: adummy ! dummy which content is not used character(len=255) :: ctoken ! character token from input character :: cdummy ! dummy which content is not used integer :: itype ! type of input to be needded integer :: ierr2 ! local error indication integer :: sysused(notot) ! work array substance selection integer :: isys ! index substance integer :: i_grid ! index grid in collection integer(4) :: ithndl = 0 if (timon) call timstrt( "read_sub_procgrid", ithndl ) ! some init sysused = 0 write ( lunut , 2000 ) ! read input do if ( gettoken( ctoken, ierr2 ) .gt. 0 ) goto 1000 select case (ctoken) case ('ALL') ! use all substances sysused = 1 write ( lunut , 2030 ) case default call zoek( ctoken, notot, syname, 20, isys ) ! use this substance if ( isys .gt. 0 ) then sysused(isys) = 1 write ( lunut , 2040 ) syname(isys) else i_grid = gridpointercollfind( GridPs, ctoken ) if ( i_grid .gt. 0 ) then ! use this grid, input is ready write ( lunut , 2050 ) trim(ctoken) exit else ! unrecognised token write ( lunut , 2020 ) trim(ctoken) goto 1000 endif endif end select enddo ! update the isysg array for all substances used in this block do isys = 1 , notot if ( sysused(isys) .eq. 1 ) isysg(isys) = i_grid enddo if (timon) call timstop( ithndl ) return 1000 write ( lunut, 2010 ) ierr = ierr + 1 if (timon) call timstop( ithndl ) return 2000 format (/' Reading SUBSTANCE_PROCESSGRID information:') 2010 format ( ' ERROR, reading SUBSTANCE_PROCESSGRID information.') 2020 format ( ' ERROR, unrecognized token: ',A) 2030 format ( ' Processgrid will be used for ALL substances') 2040 format ( ' Processgrid will be used for substance: ',A) 2050 format ( ' Processgrid for these substances is: ',A) end	docker/water/delft3d/tags/v6686/src/engines_gpl/waq/packages/waq_io/src/waq_io/read_sub_procgrid.f
MODULE caldyn_gcm_mod use mod_misc PRIVATE TYPE(t_message) :: req_ps, req_mass, req_theta_rhodz, req_u, req_qu public compute_caldyn_vert CONTAINS SUBROUTINE compute_caldyn_vert(u,theta,rhodz,convm, wflux,wwuu, dps,dtheta_rhodz,du) use prec use mod_misc IMPLICIT NONE REAL(rstd),INTENT(IN) :: u(iim3jjm,llm) REAL(rstd),INTENT(IN) :: theta(iimjjm,llm) REAL(rstd),INTENT(IN) :: rhodz(iimjjm,llm) REAL(rstd),INTENT(INOUT) :: convm(iimjjm,llm) ! mass flux convergence REAL(rstd),INTENT(INOUT) :: wflux(iimjjm,llm+1) ! vertical mass flux (kg/m2/s) REAL(rstd),INTENT(INOUT) :: wwuu(iim3jjm,llm+1) REAL(rstd),INTENT(INOUT) :: du(iim3jjm,llm) REAL(rstd),INTENT(INOUT) :: dtheta_rhodz(iimjjm,llm) REAL(rstd),INTENT(INOUT) :: dps(iimjjm) ! temporary variable INTEGER :: i,j,ij,l REAL(rstd) :: p_ik, exner_ik !!$!!$KERN INTEGER,SAVE ::ij_omp_begin, ij_omp_end !!$!!$KERN!$OMP THREADPRIVATE(ij_omp_begin, ij_omp_end) !!$!!$KERN LOGICAL,SAVE :: first=.TRUE. LOGICAL,SAVE :: first=.false. !$OMP THREADPRIVATE(first) CALL trace_start("compute_geopot") !!$!!##KERNEL: this section is never called when kernelize. !!$!!$KERN IF (first) THEN !!$!!$KERN first=.FALSE. !!$!!$KERN CALL distrib_level(ij_end-ij_begin+1,ij_omp_begin,ij_omp_end) !!$!!$KERN ij_omp_begin=ij_omp_begin+ij_begin-1 !!$!!$KERN ij_omp_end=ij_omp_end+ij_begin-1 !!$!!$KERN ENDIF ! REAL(rstd) :: wwuu(iim3jjm,llm+1) ! tmp var, don't know why but gain 30% on the whole code in opemp ! need to be understood ! wwuu=wwuu_out CALL trace_start("compute_caldyn_vert") !$OMP BARRIER !!! cumulate mass flux convergence from top to bottom ! IF (is_omp_level_master) THEN DO l = llm-1, 1, -1 ! IF (caldyn_conserv==energy) CALL test_message(req_qu) !!$OMP DO SCHEDULE(STATIC) !DIR$ SIMD DO ij=ij_omp_begin,ij_omp_end convm(ij,l) = convm(ij,l) + convm(ij,l+1) ENDDO ENDDO ! ENDIF !$OMP BARRIER ! FLUSH on convm !!!!!!!!!!!!!!!!!!!!!!!!! ! compute dps IF (is_omp_first_level) THEN !DIR$ SIMD DO ij=ij_begin,ij_end ! dps/dt = -int(div flux)dz dps(ij) = convm(ij,1) * g ENDDO ENDIF !!! Compute vertical mass flux (l=1,llm+1 done by caldyn_BC) DO l=ll_beginp1,ll_end ! IF (caldyn_conserv==energy) CALL test_message(req_qu) !DIR$ SIMD DO ij=ij_begin,ij_end ! w = int(z,ztop,div(flux)dz) + B(eta)dps/dt ! => w>0 for upward transport wflux( ij, l ) = bp(l) * convm( ij, 1 ) - convm( ij, l ) ENDDO ENDDO !--> flush wflux !$OMP BARRIER DO l=ll_begin,ll_endm1 !DIR$ SIMD DO ij=ij_begin,ij_end dtheta_rhodz(ij, l ) = dtheta_rhodz(ij, l ) - 0.5 * ( wflux(ij,l+1) * (theta(ij,l) + theta(ij,l+1))) ENDDO ENDDO DO l=ll_beginp1,ll_end !DIR$ SIMD DO ij=ij_begin,ij_end dtheta_rhodz(ij, l ) = dtheta_rhodz(ij, l ) + 0.5 * ( wflux(ij,l ) * (theta(ij,l-1) + theta(ij,l) ) ) ENDDO ENDDO ! Compute vertical transport DO l=ll_beginp1,ll_end !DIR$ SIMD DO ij=ij_begin,ij_end wwuu(ij+u_right,l) = 0.5( wflux(ij,l) + wflux(ij+t_right,l)) (u(ij+u_right,l) - u(ij+u_right,l-1)) wwuu(ij+u_lup,l) = 0.5* ( wflux(ij,l) + wflux(ij+t_lup,l)) * (u(ij+u_lup,l) - u(ij+u_lup,l-1)) wwuu(ij+u_ldown,l) = 0.5( wflux(ij,l) + wflux(ij+t_ldown,l)) (u(ij+u_ldown,l) - u(ij+u_ldown,l-1)) ENDDO ENDDO !--> flush wwuu !$OMP BARRIER ! Add vertical transport to du DO l=ll_begin,ll_end !DIR$ SIMD DO ij=ij_begin,ij_end du(ij+u_right, l ) = du(ij+u_right,l) - (wwuu(ij+u_right,l+1)+ wwuu(ij+u_right,l)) / (rhodz(ij,l)+rhodz(ij+t_right,l)) du(ij+u_lup, l ) = du(ij+u_lup,l) - (wwuu(ij+u_lup,l+1) + wwuu(ij+u_lup,l)) / (rhodz(ij,l)+rhodz(ij+t_lup,l)) du(ij+u_ldown, l ) = du(ij+u_ldown,l) - (wwuu(ij+u_ldown,l+1)+ wwuu(ij+u_ldown,l)) / (rhodz(ij,l)+rhodz(ij+t_ldown,l)) ENDDO ENDDO ! DO l=ll_beginp1,ll_end !!DIR$ SIMD ! DO ij=ij_begin,ij_end ! wwuu_out(ij+u_right,l) = wwuu(ij+u_right,l) ! wwuu_out(ij+u_lup,l) = wwuu(ij+u_lup,l) ! wwuu_out(ij+u_ldown,l) = wwuu(ij+u_ldown,l) ! ENDDO ! ENDDO CALL trace_end("compute_caldyn_vert") END SUBROUTINE compute_caldyn_vert END MODULE caldyn_gcm_mod	kernels/DYNAMICO/comp_caldyn_vert/src/caldyn_gcm.f90
module occa_base_m ! occa/c/base.h use occa_types_m implicit none interface ! ---[ Globals & Flags ]---------------- ! occaProperties occaSettings(); type(occaProperties) function occaSettings() bind(C, name="occaSettings") import occaProperties end function ! void occaPrintModeInfo(); pure subroutine occaPrintModeInfo() bind(C, name="occaPrintModeInfo") end subroutine ! ====================================== ! ---[ Device ]------------------------- ! occaDevice occaHost(); type(occaDevice) function occaHost() bind(C, name="occaHost") import occaDevice end function ! occaDevice occaGetDevice(); type(occaDevice) function occaGetDevice() bind(C, name="occaGetDevice") import occaDevice end function ! void occaSetDevice(occaDevice device); subroutine occaSetDevice(device) bind(C, name="occaSetDevice") import occaDevice implicit none type(occaDevice), value :: device end subroutine ! void occaSetDeviceFromString(const char info); subroutine occaSetDeviceFromString(info) & bind(C, name="occaSetDeviceFromString") import C_char implicit none character(len=1,kind=C_char), dimension(), intent(in) :: info end subroutine ! occaProperties occaDeviceProperties(); type(occaProperties) function occaDeviceProperties() & bind(C, name="occaDeviceProperties") import occaProperties end function ! void occaLoadKernels(const char library); subroutine occaLoadKernels(library) bind(C, name="occaLoadKernels") import C_char implicit none character(len=1,kind=C_char), dimension(), intent(in) :: library end subroutine ! void occaFinish(); subroutine occaFinish() bind(C, name="occaFinish") end subroutine ! occaStream occaCreateStream(occaProperties props); type(occaStream) function occaCreateStream(props) & bind(C, name="occaCreateStream") import occaStream, occaProperties implicit none type(occaProperties), value :: props end function ! occaStream occaGetStream(); type(occaStream) function occaGetStream() bind(C, name="occaGetStream") import occaStream end function ! void occaSetStream(occaStream stream); subroutine occaSetStream(stream) bind(C, name="occaSetStream") import occaStream implicit none type(occaStream), value :: stream end subroutine ! occaStreamTag occaTagStream(); type(occaStreamTag) function occaTagStream() bind(C, name="occaTagStream") import occaStreamTag end function ! void occaWaitForTag(occaStreamTag tag); subroutine occaWaitForTag(tag) bind(C, name="occaWaitForTag") import occaStreamTag implicit none type(occaStreamTag), value :: tag end subroutine ! double occaTimeBetweenTags(occaStreamTag startTag, occaStreamTag endTag); real(C_double) function occaTimeBetweenTags(startTag, endTag) & bind(C, name="occaTimeBetweenTags") import occaStreamTag, C_double implicit none type(occaStreamTag), value :: startTag, endTag end function ! ====================================== ! ---[ Kernel ]------------------------- ! occaKernel occaBuildKernel(const char filename, ! const char kernelName, ! const occaProperties props); type(occaKernel) function occaBuildKernel(filename, & kernelName, & props) & bind(C, name="occaBuildKernel") import C_char, occaKernel, occaProperties implicit none character(len=1,kind=C_char), dimension(), intent(in) :: filename, & kernelName type(occaProperties), value, intent(in) :: props end function ! occaKernel occaBuildKernelFromString(const char source, ! const char kernelName, ! const occaProperties props); type(occaKernel) function occaBuildKernelFromString(str, & kernelName, & props) & bind(C, name="occaBuildKernelFromString") import C_char, occaKernel, occaProperties implicit none character(len=1,kind=C_char), dimension(), intent(in) :: str, & kernelName type(occaProperties), value, intent(in) :: props end function ! occaKernel occaBuildKernelFromBinary(const char filename, ! const char kernelName, ! const occaProperties props); type(occaKernel) function occaBuildKernelFromBinary(filename, & kernelName, & props) & bind(C, name="occaBuildKernelFromBinary") import C_char, occaKernel, occaProperties implicit none character(len=1,kind=C_char), dimension(), intent(in) :: filename, & kernelName type(occaProperties), value, intent(in) :: props end function ! ====================================== ! ---[ Memory ]------------------------- ! occaMemory occaMalloc(const occaUDim_t bytes, ! const void src, ! occaProperties props); type(occaMemory) function occaMalloc(bytes, src, props) & bind(C, name="occaMalloc") import occaMemory, occaUDim_t, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: bytes type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! occaMemory occaTypedMalloc(const occaUDim_t entries, ! const occaDtype type, ! const void src, ! occaProperties props); type(occaMemory) function occaTypedMalloc(entries, type, src, props) & bind(C, name="occaTypedMalloc") import occaMemory, occaUDim_t, occaDtype, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: entries type(occaDtype), value, intent(in) :: type type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! void occaUMalloc(const occaUDim_t bytes, ! const void src, ! occaProperties props); type(C_void_ptr) function occaUMalloc(bytes, src, props) & bind(C, name="occaUMalloc") import occaUDim_t, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: bytes type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! void occaTypedUMalloc(const occaUDim_t entries, ! const occaDtype type, ! const void *src, ! occaProperties props); type(C_void_ptr) function occaTypedUMalloc(entries, type, src, props) & bind(C, name="occaTypedUMalloc") import occaUDim_t, occaDtype, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: entries type(occaDtype), value, intent(in) :: type type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! ====================================== end interface end module occa_base_m	src/fortran/occa_base_m.f90
module stpvwnd10mmod !$$$ module documentation block ! . . . . ! module: stpvwnd10mmod module for stpvwnd10m ! prgmmr: ! ! abstract: module for stpvwnd10m ! ! program history log: ! 2016-05-05 pondeca ! 2017-03-19 yang - modify code to use polymorphic obsNode ! ! subroutines included: ! sub stpvwnd10m ! ! attributes: ! language: f90 ! machine: ! !$$$ end documentation block use m_obsNode , only: obsNode use m_vwnd10mNode, only: vwnd10mNode use m_vwnd10mNode, only: vwnd10mNode_typecast use m_vwnd10mNode, only: vwnd10mNode_nextcast implicit none PRIVATE PUBLIC stpvwnd10m contains subroutine stpvwnd10m(vwnd10mhead,rval,sval,out,sges,nstep) !$$$ subprogram documentation block ! . . . . ! subprogram: stpvwnd10m calculate penalty and contribution to stepsize ! ! abstract: calculate penalty and contribution to stepsize for 10m-vwind ! with addition of nonlinear qc ! ! program history log: ! 2016-05-05 pondeca ! ! input argument list: ! vwnd10mhead ! rvwnd10m - search direction for vwnd10m ! svwnd10m - analysis increment for vwnd10m ! sges - step size estimate (nstep) ! nstep - number of stepsizes (==0 means use outer iteration values) ! ! output argument list: ! out(1:nstep) - contribution to penalty for conventional vwnd10m - sges(1:nstep) ! ! attributes: ! language: f90 ! machine: ibm RS/6000 SP ! !$$$ use kinds, only: r_kind,i_kind,r_quad use qcmod, only: nlnqc_iter,varqc_iter use constants, only: half,one,two,tiny_r_kind,cg_term,zero_quad use gsi_bundlemod, only: gsi_bundle use gsi_bundlemod, only: gsi_bundlegetpointer implicit none ! Declare passed variables class(obsNode),pointer ,intent(in ) :: vwnd10mhead integer(i_kind) ,intent(in ) :: nstep real(r_quad),dimension(max(1,nstep)),intent(inout) :: out type(gsi_bundle) ,intent(in ) :: rval,sval real(r_kind),dimension(max(1,nstep)),intent(in ) :: sges ! Declare local variables integer(i_kind) j1,j2,j3,j4,kk,ier,istatus real(r_kind) w1,w2,w3,w4 real(r_kind) val,val2 real(r_kind) cg_vwnd10m,vwnd10m,wgross,wnotgross real(r_kind),dimension(max(1,nstep)):: pen real(r_kind) pg_vwnd10m real(r_kind),pointer,dimension(:) :: svwnd10m real(r_kind),pointer,dimension(:) :: rvwnd10m type(vwnd10mNode), pointer :: vwnd10mptr out=zero_quad ! If no vwnd10m data return if(.not. associated(vwnd10mhead))return ! Retrieve pointers ! Simply return if any pointer not found ier=0 call gsi_bundlegetpointer(sval,'vwnd10m',svwnd10m,istatus);ier=istatus+ier call gsi_bundlegetpointer(rval,'vwnd10m',rvwnd10m,istatus);ier=istatus+ier if(ier/=0)return ! vwnd10mptr => vwnd10mhead vwnd10mptr => vwnd10mNode_typecast(vwnd10mhead) do while (associated(vwnd10mptr)) if(vwnd10mptr%luse)then if(nstep > 0)then j1=vwnd10mptr%ij(1) j2=vwnd10mptr%ij(2) j3=vwnd10mptr%ij(3) j4=vwnd10mptr%ij(4) w1=vwnd10mptr%wij(1) w2=vwnd10mptr%wij(2) w3=vwnd10mptr%wij(3) w4=vwnd10mptr%wij(4) val =w1rvwnd10m(j1)+w2rvwnd10m(j2)+w3rvwnd10m(j3)+w4rvwnd10m(j4) val2=w1svwnd10m(j1)+w2svwnd10m(j2)+w3svwnd10m(j3)+w4svwnd10m(j4)-vwnd10mptr%res do kk=1,nstep vwnd10m=val2+sges(kk)val pen(kk)= vwnd10mvwnd10mvwnd10mptr%err2 end do else pen(1)=vwnd10mptr%resvwnd10mptr%resvwnd10mptr%err2 end if ! Modify penalty term if nonlinear QC if (nlnqc_iter .and. vwnd10mptr%pg > tiny_r_kind .and. & vwnd10mptr%b > tiny_r_kind) then pg_vwnd10m=vwnd10mptr%pgvarqc_iter cg_vwnd10m=cg_term/vwnd10mptr%b wnotgross= one-pg_vwnd10m wgross = pg_vwnd10mcg_vwnd10m/wnotgross do kk=1,max(1,nstep) pen(kk)= -twolog((exp(-halfpen(kk)) + wgross)/(one+wgross)) end do endif out(1) = out(1)+pen(1)vwnd10mptr%raterr2 do kk=2,nstep out(kk) = out(kk)+(pen(kk)-pen(1))*vwnd10mptr%raterr2 end do end if ! vwnd10mptr => vwnd10mptr%llpoint vwnd10mptr => vwnd10mNode_nextcast(vwnd10mptr) end do return end subroutine stpvwnd10m end module stpvwnd10mmod	GEOSaana_GridComp/GSI_GridComp/stpvwnd10m.f90
SUBROUTINE SFFTFU( X, Y, N, M, ITYPE ) c c Decimation-in-time radix-2 split-radix complex FFT c c Arguments: c X - real part of data sequence (in/out) c Y - imag part of data sequence (in/out) c N,M - integers such that N = 2*M (in) c ITYPE - integer transform type (in) c ITYPE .ne. -1 --> forward transform c ITYPE .eq. -1 --> backward transform c c The forward transform computes c X(k) = sum_{j=0}^{N-1} x(j)exp(-2ijkpi/N) c c The backward transform computes c x(j) = (1/N) sum_{k=0}^{N-1} X(k)exp(2ijkpi/N) c c c Here is the original program header... c C-------------------------------------------------------------C C A Duhamel-Hollman Split-Radix DIT FFT C C Reference: Electronics Letters, January 5, 1984 C C Complex input and output in data arrays X and Y C C Length is N = 2*M C C C C H.V. Sorensen Rice University Dec 1984 C C-------------------------------------------------------------C c c ... Scalar arguments ... INTEGER N, M, ITYPE c ... Array arguments ... REAL X(), Y() c ... Local scalars ... INTEGER I, J, K, N1, N2, N4, IS, ID, I0, I1, I2, I3 REAL TWOPI, A, A3, E, XT, R1, R2, R3, S1, S2 REAL CC1, CC3, SS1, SS3 c ... Parameters ... PARAMETER ( TWOPI = 6.283185307179586476925287 ) c ... Intrinsic functions ... INTRINSIC SIN, COS c c ... Exe. statements ... c c ... Quick return ... IF ( N .EQ. 1 ) RETURN c c ... Conjugate if necessary ... IF ( ITYPE .EQ. -1 ) THEN DO 1, I = 1, N Y(I) = - Y(I) 1 CONTINUE ENDIF c c ... Bit reversal permutation ... 100 J = 1 N1 = N - 1 DO 104, I = 1, N1 IF ( I .GE. J ) GOTO 101 XT = X(J) X(J) = X(I) X(I) = XT XT = Y(J) Y(J) = Y(I) Y(I) = XT 101 K = N / 2 102 IF ( K .GE. J ) GOTO 103 J = J - K K = K / 2 GOTO 102 103 J = J + K 104 CONTINUE c c ... Length two transforms ... IS = 1 ID = 4 70 DO 60, I0 = IS, N, ID I1 = I0 + 1 R1 = X(I0) X(I0) = R1 + X(I1) X(I1) = R1 - X(I1) R1 = Y(I0) Y(I0) = R1 + Y(I1) Y(I1) = R1 - Y(I1) 60 CONTINUE IS = 2 ID - 1 ID = 4 * ID IF ( IS .LT. N ) GOTO 70 c c ... L shaped butterflies ... N2 = 2 DO 10, K = 2, M N2 = N2 * 2 N4 = N2 / 4 E = TWOPI / N2 A = 0.0 DO 20, J = 1, N4 A3 = 3 * A CC1 = COS( A ) SS1 = SIN( A ) CC3 = COS( A3 ) SS3 = SIN( A3 ) A = J * E IS = J ID = 2 * N2 40 DO 30, I0 = IS, N-1, ID I1 = I0 + N4 I2 = I1 + N4 I3 = I2 + N4 R1 = X(I2) * CC1 + Y(I2) * SS1 S1 = Y(I2) * CC1 - X(I2) * SS1 R2 = X(I3) * CC3 + Y(I3) * SS3 S2 = Y(I3) * CC3 - X(I3) * SS3 R3 = R1 + R2 R2 = R1 - R2 R1 = S1 + S2 S2 = S1 - S2 X(I2) = X(I0) - R3 X(I0) = X(I0) + R3 X(I3) = X(I1) - S2 X(I1) = X(I1) + S2 Y(I2) = Y(I0) - R1 Y(I0) = Y(I0) + R1 Y(I3) = Y(I1) + R2 Y(I1) = Y(I1) - R2 30 CONTINUE IS = 2 * ID - N2 + J ID = 4 * ID IF ( IS .LT. N ) GOTO 40 20 CONTINUE 10 CONTINUE c c ... Conjugate and normalize if necessary ... IF ( ITYPE .EQ. -1 ) THEN DO 2, I = 1, N Y(I) = - Y(I) / N X(I) = X(I) / N 2 CONTINUE ENDIF c RETURN c c ... End of subroutine SFFTFU ... c END	benchees/sorensen/sfftfu.f
program t integer,dimension(3)::i=(/1,2,3/) where (i>1) i=i2 print ,i end program t	tests/t0116x/t.f
! Overload fill value functions interface nf90_def_var_fill module procedure nf90_def_var_fill_OneByteInt, & nf90_def_var_fill_TwoByteInt, & nf90_def_var_fill_FourByteInt, & nf90_def_var_fill_EightByteInt, & nf90_def_var_fill_FourByteReal, & nf90_def_var_fill_EightByteReal end interface interface nf90_inq_var_fill module procedure nf90_inq_var_fill_OneByteInt, & nf90_inq_var_fill_TwoByteInt, & nf90_inq_var_fill_FourByteInt, & nf90_inq_var_fill_EightByteInt, & nf90_inq_var_fill_FourByteReal, & nf90_inq_var_fill_EightByteReal end interface	fortran/netcdf4_overloads.f90
Module mo_model use mo_kind , only: dp, i4 implicit none private public :: getrange public :: model interface model module procedure model_1d, model_0d end interface model ! module variables integer(i4) :: npara = 3 contains function GetRange() implicit none real(dp), dimension(npara,2) :: GetRange ! min value and max value of parameter real(dp), parameter :: my_pi = 3.141592653589793238462643383279502884197_dp GetRange(1,:) = (/ -my_pi, my_pi /) ! min & max parameter 1 GetRange(2,:) = (/ -my_pi, my_pi /) ! min & max parameter 2 GetRange(3,:) = (/ -my_pi, my_pi /) ! min & max parameter 3 end function GetRange function model_1d(paraset,x) implicit none real(dp), dimension(npara), intent(in) :: paraset ! parameter set real(dp), dimension(:), intent(in) :: x ! variables real(dp), dimension(size(x)) :: model_1d ! modeled output ! local variables real(dp), parameter :: my_b = 2.0_dp model_1d(:) = sin(paraset(1)) + x(:)(sin(paraset(2)))2 + my_b paraset(3)*4 sin(paraset(1)) end function model_1d function model_0d(paraset,x) implicit none real(dp), dimension(npara), intent(in) :: paraset ! parameter set real(dp), intent(in) :: x ! variables real(dp) :: model_0d ! modeled output ! local variables real(dp), parameter :: my_b = 2.0_dp model_0d = sin(paraset(1)) + x(sin(paraset(2)))2 + my_b paraset(3)*4 sin(paraset(1)) end function model_0d end Module mo_model	test/test_mo_sobol_index/mo_model.f90
module constants !================================================================== ! This module contains all the non-modifiable parameters and ! all quantities which never change throughout a simulation. !================================================================== !Import parameters: use parameters integer,parameter:: nxm1=nx-1, nym1=ny-1, nzm1=nz-1 !Generic double precision numerical constants: double precision,parameter:: zero=0.d0, one=1.d0 double precision,parameter:: two=2.d0, three=3.d0 double precision,parameter:: four=4.d0, six=6.d0 double precision,parameter:: f12=one/two, f13=one/three, f14=one/four double precision,parameter:: f16=one/six, f56=5.d0/six, f112=one/12.d0 double precision,parameter:: small=1.d-12, oms=one-small !--------------------------------------------------------------------- !Domain half widths and edge values: double precision,parameter:: hlx=ellx/two, hlxi=one/hlx, xmin=-hlx double precision,parameter:: hly=elly/two, hlyi=one/hly, ymin=-hly double precision,parameter:: zmin=-ellz/two, zmax=zmin+ellz !Grid lengths and their inverses: double precision,parameter:: dx=ellx/dble(nx), dxi=dble(nx)/(ellxoms) double precision,parameter:: dy=elly/dble(ny), dyi=dble(ny)/(ellyoms) double precision,parameter:: dz=ellz/dble(nz), dzi=dble(nz)/(ellzoms) !Grid cell volume: double precision,parameter:: vcell=dxdydz !--------------------------------------------------------------------- !Number of grid cells: integer,parameter:: ncell=nxny*(nz+1) end module	merging_standalone/3d/constants.f90
module timeman implicit none CONTAINS ! print statements in this module use 1100-1200 !! time tracking funcs and subs subroutine initialize_t1 !sets t1, the beginning of a new repetative operation use timevars, only: t1 call cpu_time(t1) end subroutine initialize_t1 subroutine timeupdate( chtype,ndone,ntotal ) !uses t1 and new t2 to give update on time for new repetative operation use MCvars, only: numPartsperj use timevars, only: t1 integer :: ndone,ntotal, orda,ordm real(8) :: t2, ave,maxv,eps=0.0000000001d0 character() :: chtype call cpu_time(t2) if(chtype=='radMC' .or. chtype=='radWood' .or. chtype=='KLWood' .or. chtype=='GaussKL') then 1101 format(A9," ",f6.1,"% of ",i7," time/est:",f7.2,"/",f7.2," min h/r-ave/max: ",f3.1,"E",i1,"/",f3.1,"E",i1) ave = real(sum(numPartsperj),8)/ndone+eps orda= int(floor(log(ave)/log(10d0)10.0)/10.0) maxv= real(maxval(numPartsperj),8)+eps ordm= int(floor(log(maxv)/log(10d0))) write(,1101) chtype,real(ndone,8)/ntotal100d0,ntotal,(t2-t1)/60.0d0,(t2-t1)ntotal/ndone/60.0d0, & ave/(10.0orda),orda,maxv/(10.0ordm),ordm else 1100 format(A9," ",f6.1,"% of ",i7," time/est:",f7.2,"/",f7.2," min") write(,1100) chtype,real(ndone,8)/ntotal100d0,ntotal,(t2-t1)/60.0d0,(t2-t1)ntotal/ndone/60.0d0 endif end subroutine end module timeman	mods/timeman.f90
Describe Western ScreechOwl here. There are several screech owls residing in Davis, The biggest and loudest so far appears to reside in East Davis near Poleline / Eighth (maybe he lives in cemetery) SKREEEEEEEEEEEEEEEEEE Daubert	lab/davisWiki/Western_Screech-Owl.f
subroutine Curve2Mask(dhgrid, n, sampling, profile, nprofile, NP, & centralmeridian, exitstatus) !------------------------------------------------------------------------------ ! ! Given a list of coordinates of a SINGLE CLOSED CURVE, this routine ! will fill the interior and exterior with 0s and 1s. The value at the ! north pole (either 0 or 1) is specified by the input parameter NP. ! ! Calling Parameters ! ! IN ! profile Latitude (:,1) and longitude (:,2) coordinates of a ! single close curve having dimension (nprofile, 2). ! nprofile Number of coordinates in the vector profile. ! np Value of the output function at the North Pole, which ! can be either 0 or 1. ! n Number of latitude bands in the output Driscoll and ! Healy sampled grid. ! sampling 1 sets the number of longitude bands equal to 1, ! whereas 2 sets the number to twice that of n. ! centralmeridian If 1, the curve is assumed to pass through the ! central meridian: passing from < 360 degrees ! to > 0 degrees. The curve makes a complete ! circle about the planet in longitude. default ! is zero. ! ! OUT ! dhgrid A Driscoll and Healy sampled grid specifiying whether ! the point is in the curve (1), or outside of it (0). ! ! OPTIONAL (OUT) ! exitstatus If present, instead of executing a STOP when an error ! is encountered, the variable exitstatus will be ! returned describing the error. ! 0 = No errors; ! 1 = Improper dimensions of input array; ! 2 = Improper bounds for input variable; ! 3 = Error allocating memory; ! 4 = File IO error. ! ! Copyright (c) 2005-2019, SHTOOLS ! All rights reserved. ! !------------------------------------------------------------------------------ use ftypes implicit none integer, intent(out) :: dhgrid(:,:) real(dp), intent(in) :: profile(:,:) integer, intent(in) :: n, sampling, nprofile, np integer, intent(in), optional :: centralmeridian integer, intent(out), optional :: exitstatus integer, parameter :: maxcross = 2000 integer :: i, j, k, k_loc, nlat, nlong, numcross, next, ind1, ind2, cm real(dp) :: lat_int, long_int, lon, cross(maxcross), cross_sort(maxcross) if (present(exitstatus)) exitstatus = 0 nlat = n lat_int = 180.0_dp / dble(nlat) dhgrid = 0 if (mod(n,2) /= 0) then print, "Error --- Curve2Mask" print, "N must be even" print, "N = ", n if (present(exitstatus)) then exitstatus = 2 return else stop end if end if if (sampling == 1) then nlong = nlat long_int = 2.0_dp lat_int else if (sampling == 2) then nlong = 2 * nlat long_int = lat_int else print, "Error --- Curve2Mask" print, "SAMPLING of DHGRID must be 1 (equally sampled) or 2 (equally spaced)." print, "SAMPLING = ", sampling if (present(exitstatus)) then exitstatus = 2 return else stop end if end if if (NP /= 1 .and. NP /= 0) then print, "Error --- Curve2Mask" print, "NP must be 0 if the North pole is outside of curve," print, "or 1 if the North pole is inside of the curve." print, "NP = ", np if (present(exitstatus)) then exitstatus = 2 return else stop end if end if if (size(dhgrid(1,:)) < nlong .or. size(dhgrid(:,1)) < nlat ) then print, "Error --- Curve2Mask" print, "DHGRID must be dimensioned as (NLAT, NLONG)." print, "NLAT = ", nlat print, "NLONG = ", nlong print, "Size of GRID = ", size(dhgrid(:,1)), size(dhgrid(1,:)) if (present(exitstatus)) then exitstatus = 1 return else stop end if end if if (size(profile(:,1)) < nprofile .or. size(profile(1,:)) < 2) then print, "Error --- Curve2Mask" print, "PROFILE must be dimensioned as (NPROFILE, 2)." print, "Dimension of NPROFILE = ", size(profile(:,1)), & size(profile(1,:)) if (present(exitstatus)) then exitstatus = 1 return else stop end if end if if (present(centralmeridian)) then if (centralmeridian /= 0 .and. centralmeridian /= 1) then print, "Error --- Curve2Mask" print, "CENTRALMERIDIAN must be either 0 or 1." print, "Input value is ", centralmeridian if (present(exitstatus)) then exitstatus = 2 return else stop end if end if cm = centralmeridian else cm = 0 end if !-------------------------------------------------------------------------- ! ! Start at 90N and 0E. Determine where the curve crosses this longitude ! band, sort the values, and then set the pixels between zero crossings ! to either 0 or 1. ! !-------------------------------------------------------------------------- do j = 1, nlong lon = dble(j-1) * long_int numcross = 0 do i = 1, nprofile - 1 if (profile(i,2) <= lon .and. profile(i+1,2) > lon) then numcross = numcross + 1 if (numcross > maxcross) then print, "Error --- Curve2Mask" print, "Internal variable MAXCROSS needs to be increased." print, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(i,1) + (profile(i+1,1)-profile(i,1)) & / (profile(i+1,2)-profile(i,2)) & (lon - profile(i,2)) else if (profile(i,2) > lon .and. profile(i+1,2) <= lon) then numcross = numcross + 1 if (numcross > maxcross) then print, "Error --- Curve2Mask" print, "Internal variable MAXCROSS needs to be increased." print, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(i+1,1) + & (profile(i,1)-profile(i+1,1)) / & (profile(i,2)-profile(i+1,2)) & (lon - profile(i+1,2)) end if end do ! do first and last points if (cm == 0) then if (profile(nprofile,2) <= lon .and. profile(1,2) > lon) then numcross = numcross + 1 if (numcross > maxcross) then print, "Error --- Curve2Mask" print, "Internal variable MAXCROSS needs to be increased." print, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(nprofile,1) + & (profile(1,1)-profile(nprofile,1)) / & (profile(1,2)-profile(nprofile,2)) & (lon - profile(nprofile,2)) else if (profile(nprofile,2) > lon .and. profile(1,2) <= lon) then numcross = numcross + 1 if (numcross > maxcross) then print, "Error --- Curve2Mask" print, "Internal variable MAXCROSS needs to be increased." print, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(1,1) + & (profile(nprofile,1)-profile(1,1)) / & (profile(nprofile,2)-profile(1,2)) & (lon - profile(1,2)) end if end if if (numcross > 0) then ! sort crossings by decreasing latitude do k = 1, numcross k_loc = maxloc(cross(1:numcross), 1) cross_sort(k) = cross(k_loc) cross(k_loc) = -999.0_dp end do end if if (numcross == 0) then dhgrid(1:nlat, j) = np else if (numcross == 1) then ind1 = int( (90.0_dp - cross_sort(1)) / lat_int) + 1 dhgrid(1:ind1, j) = np if (ind1 == nlat) then cycle else if (np == 0) then dhgrid(ind1+1:nlat, j) = 1 else dhgrid(ind1+1:nlat, j) = 0 end if else ind1 = 1 next = np do k = 1, numcross ind2 = int( (90.0_dp - cross_sort(k)) / lat_int) + 1 if (ind2 >= ind1) dhgrid(ind1:ind2, j) = next if (next == 0) then next = 1 else next = 0 end if ind1 = ind2 + 1 end do if (ind1 <= nlat) dhgrid(ind1:nlat, j) = next end if end do end subroutine Curve2Mask	src/Curve2Mask.f95
C Copyright(C) 1999-2020 National Technology & Engineering Solutions C of Sandia, LLC (NTESS). Under the terms of Contract DE-NA0003525 with C NTESS, the U.S. Government retains certain rights in this software. C C See packages/seacas/LICENSE for details C======================================================================= SUBROUTINE SMOGS2 (xscr, yscr, isbnd, x, y, numel, $ link, nlink, numnp, nscr) C======================================================================= C********************************************************************* C SUBROUTINE SMOGS = MESH SMOOTHING BY LAPLACE-S USING GAUSS-SEIDEL C********************************************************************* real x(), y(), xscr(), yscr() integer numel, nlink, link(nlink, ) logical isbnd() integer nscr(*) if (nlink .ne. 4) return do 20 iel = 1, numel n1 = link(1, iel) n2 = link(2, iel) n3 = link(3, iel) n4 = link(4, iel) if (.not. isbnd(n1)) then xscr(n1) = xscr(n1) + x(n2) + x(n4) yscr(n1) = yscr(n1) + y(n2) + y(n4) nscr(n1) = nscr(n1) + 2 end if if (.not. isbnd(n2)) then xscr(n2) = xscr(n2) + x(n1) + x(n3) yscr(n2) = yscr(n2) + y(n1) + y(n3) nscr(n2) = nscr(n2) + 2 end if if (.not. isbnd(n3)) then xscr(n3) = xscr(n3) + x(n2) + x(n4) yscr(n3) = yscr(n3) + y(n2) + y(n4) nscr(n3) = nscr(n3) + 2 end if if (.not. isbnd(n4)) then xscr(n4) = xscr(n4) + x(n1) + x(n3) yscr(n4) = yscr(n4) + y(n1) + y(n3) nscr(n4) = nscr(n4) + 2 end if 20 continue return end	packages/seacas/applications/grepos/gp_smogs2.f
! Program to test the stack variable size limit. program stack call sub1 call sub2 (1) contains ! Local variables larger than 32768 in byte size shall be placed in static ! storage area, while others be put on stack by default. subroutine sub1 real a, b(32768/4), c(32768/4+1) integer m, n(1024,4), k(1024,1024) a = 10.0 b = 20.0 c = 30.0 m = 10 n = 20 k = 30 if ((a .ne. 10.0).or.(b(1) .ne. 20.0).or.(c(1) .ne. 30.0)) call abort if ((m .ne. 10).or.(n(256,4) .ne. 20).or.(k(1,1024) .ne. 30)) call abort end subroutine ! Local variables defined in recursive subroutine are always put on stack. recursive subroutine sub2 (n) real a (32769) a (1) = 42 if (n .ge. 1) call sub2 (n-1) if (a(1) .ne. 42) call abort a (1) = 0 end subroutine end	gcc-gcc-7_3_0-release/gcc/testsuite/gfortran.fortran-torture/execute/stack_varsize.f90
subroutine many_args(a0, a1, a2, a3, a4, a5, a6, a7, a8, a9, a20, a21, a22,& a23, a24, a25, a26, a27, a28, a29, a30, a31, a32, a33, a34, a35, a36, a37,& a38, a39, a40, a41, a42, a43, a44, a45, a46, a47, a48, a49) implicit none integer, intent(in) :: a0, a1, a2, a3, a4, a5, a6, a7, a8, a9, a20, a21, a22,& a23, a24, a25, a26, a27, a28, a29, a30, a31, a32, a33, a34, a35, a36, a37,& a38, a39, a40, a41, a42, a43, a44, a45, a46, a47, a48, a49 end subroutine many_args	tests/compile/many_args.f90
* * $Id$ * ====================================================================== * DISCLAIMER * * This material was prepared as an account of work sponsored by an * agency of the United States Government. Neither the United States * Government nor the United States Department of Energy, nor Battelle, * nor any of their employees, MAKES ANY WARRANTY, EXPRESS OR IMPLIED, OR * ASSUMES ANY LEGAL LIABILITY OR RESPONSIBILITY FOR THE ACCURACY, * COMPLETENESS, OR USEFULNESS OF ANY INFORMATION, APPARATUS, PRODUCT, * SOFTWARE, OR PROCESS DISCLOSED, OR REPRESENTS THAT ITS USE WOULD NOT * INFRINGE PRIVATELY OWNED RIGHTS. * * ACKNOWLEDGMENT * * This software and its documentation were produced with Government * support under Contract Number DE-AC06-76RLO-1830 awarded by the United * States Department of Energy. The Government retains a paid-up * non-exclusive, irrevocable worldwide license to reproduce, prepare * derivative works, perform publicly and display publicly by or for the * Government, including the right to distribute to other Government * contractors. * ====================================================================== * -- PEIGS routine (version 2.1) -- * Pacific Northwest Laboratory * July 28, 1995 * ====================================================================== real function samax(n,dx,incx) c c returns the max of the absolute values. real dx(),dtemp integer i,incx,n,nincx c samax = 0.0 dtemp = 0.0 if( n.le.0 .or. incx.le.0 )return if(incx.ne.1) then c c code for increment not equal to 1 c nincx = n*incx do 10 i = 1,nincx,incx dtemp = max( dtemp, abs(dx(i)) ) 10 continue else c code for increment equal to 1 c do 20 i = 1, n dtemp = max( dtemp, abs(dx(i)) ) 20 continue endif samax = dtemp return end	src/peigs/src/f77/samax.f
c======================================================================= c c subroutine EMPCOVEXP c c Empirical Exponentially Weighted Covariance matrix and mean c c n c --- c cov(i,j) = (1 - L) \ L^(k-1)[X(k,i) - rho(i)] [X(k,j) - rho(j)] c / c --- c k=1 c c----------------------------------------------------------------------- SUBROUTINE empcovexp ( n, p, lambda, X, rho, XR, cov, info ) c----------------------------------------------------------------------- c c INPUT c n : number of value(s) (n > 1) integer c p : number of asset(s) (p >= 1) integer c lambda: exponetial parameter integer c X : matrix of values (np) double c rho : mean vector (n) double c c OUTPUT c XR : relative [X(.,j) - rho(j)] (np) double c cov : empirical covariance matrix (pp) double c info : diagnostic argument integer c c CALL c cove : covariance matrix from centred values : X - E(X) c (input matrix nm, result : full symetric matrix mm) c c----------------------------------------------------------------------- c IMPLICIT NONE c c arguments i/o INTEGER n, p, info DOUBLE PRECISION lambda, X(n,), rho(), cov(p,), XR(n,) c c local variables INTEGER i, j DOUBLE PRECISION mean c c external subroutines EXTERNAL cove c c----------------------------------------------------------------------- c c initialization info = 0 c c relative return(s) DO j = 1,p mean = rho(j) DO i = 1,n XR(i, j) = X(i,j) - mean ENDDO ENDDO c c computation of sum on k of XR(k,i) XR(k,j) CALL cove ( n, p, XR, lambda, cov, info ) c RETURN END	src/math/analysis/cov/empcovexp.f
! { dg-do compile } ! { dg-options "-std=f95" } ! Test for PROCEDURE statements with the -std=f95 flag. ! Contributed by Janus Weil <[email protected]> program p procedure():: proc ! { dg-error "Fortran 2003: PROCEDURE statement" } end program	validation_tests/llvm/f18/gfortran.dg/proc_decl_4.f90
! chk_protected.f90 ! Check: does the compiler support the PROTECTED attribute? ! module protected_var implicit none integer, protected :: readonly = 123 end module protected_var program chk_protected use protected_var implicit none write( , '(a,i0)' ) 'Value of the protected variable: ', readonly write( , '(a,i0)' ) 'Expected value: ', 123 write( *, '(a)' ) '(This only confirms syntactical support for the attribute)' end program chk_protected	chkfeatures/chk_protected.f90
program MC_ex01_p04 use mc_randoms implicit none real(rk)::a real(rk),allocatable::p_lcg(:,:),p_pm(:,:),p_mt(:,:) integer::i !Initialize call seed_lcg(int(15,ik)) call seed_pm(int(7895,ik)) call init_genrand64(int(431,ik)) allocate(p_lcg(100,2),p_pm(100,2),p_mt(100,2)) !100 points do i=1, 100 p_lcg(i,1)=rand_lcg() p_lcg(i,2)=rand_lcg() p_pm(i,1)=rand_pm() p_pm(i,2)=rand_pm() p_mt(i,1)=genrand64_real3() p_mt(i,2)=genrand64_real3() end do !Adjust the interval p_lcg=p_lcg2-1 p_pm=p_pm2-1 p_mt=p_mt2-1 !Save the data !LCG open(1,action="write",file="data_lcg100.txt",status="replace") do i=1,100 write(1,) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm100.txt",status="replace") do i=1,100 write(1,) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt100.txt",status="replace") do i=1,100 write(1,) p_mt(i,1), p_mt(i,2) end do close(1) deallocate(p_lcg,p_pm,p_mt) !Data for 10000 points allocate(p_lcg(10000,2),p_pm(10000,2),p_mt(10000,2)) !10000points do i=1, 10000 p_lcg(i,1)=rand_lcg() p_lcg(i,2)=rand_lcg() p_pm(i,1)=rand_pm() p_pm(i,2)=rand_pm() p_mt(i,1)=genrand64_real3() p_mt(i,2)=genrand64_real3() end do !Adjust the interval p_lcg=p_lcg2-1 p_pm=p_pm2-1 p_mt=p_mt2-1 !Save the data !LCG open(1,action="write",file="data_lcg10000.txt",status="replace") do i=1,10000 write(1,) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm10000.txt",status="replace") do i=1,10000 write(1,) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt10000.txt",status="replace") do i=1,10000 write(1,) p_mt(i,1), p_mt(i,2) end do close(1) !Region [-0.01,0.01] Seed 1 !LCG i=1 do if(i>1000) exit a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,1)=a do a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,2)=a exit end if end do i=i+1 end if end do !PM i=1 do if(i>1000) exit a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,1)=a do a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,2)=a exit end if end do i=i+1 end if end do !MT i=1 do if(i>1000) exit a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,1)=a do a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,2)=a exit end if end do i=i+1 end if end do !Save the data !LCG open(1,action="write",file="data_lcg_region1.txt",status="replace") do i=1,1000 write(1,) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm_region1.txt",status="replace") do i=1,1000 write(1,) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt_region1.txt",status="replace") do i=1,1000 write(1,) p_mt(i,1), p_mt(i,2) end do close(1) !Region [-0.01,0.01] Seed 2 call seed_lcg(int(8239,ik)) call seed_pm(int(46,ik)) call init_genrand64(int(20010,ik)) !LCG i=1 do if(i>1000) exit a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,1)=a do a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,2)=a exit end if end do i=i+1 end if end do !PM i=1 do if(i>1000) exit a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,1)=a do a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,2)=a exit end if end do i=i+1 end if end do !MT i=1 do if(i>1000) exit a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,1)=a do a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,2)=a exit end if end do i=i+1 end if end do !Save the data !LCG open(1,action="write",file="data_lcg_region2.txt",status="replace") do i=1,1000 write(1,) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm_region2.txt",status="replace") do i=1,1000 write(1,) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt_region2.txt",status="replace") do i=1,1000 write(1,) p_mt(i,1), p_mt(i,2) end do close(1) end program MC_ex01_p04	Nico_Toikka_ex1/p04/points/ex04.f95
PROGRAM FM821 C*********************************************************************00010821 C* FORTRAN 77 00020821 C* FM821 00030821 C* YDCOS - (190) 00040821 C* 00050821 C*******************************************************************00060821 C* GENERAL PURPOSE ANS REF 00070821 C* TEST INTRINSIC FUNCTION DCOS 15.3 00080821 C* TABLE 5 00090821 C* 00100821 CBB ******************** BBCCOMNT ******************************00110821 C 00120821 C 1978 FORTRAN COMPILER VALIDATION SYSTEM 00130821 C VERSION 2.1 00140821 C 00150821 C 00160821 C SUGGESTIONS AND COMMENTS SHOULD BE FORWARDED TO 00170821 C NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY 00180821 C SOFTWARE STANDARDS VALIDATION GROUP 00190821 C BUILDING 225 RM A266 00200821 C GAITHERSBURG, MD 20899 00210821 C 00220821 C 00230821 C 00240821 CBE ******************** BBCCOMNT ******************************00250821 C* 00260821 C* S P E C I F I C A T I O N S SEGMENT 190 00270821 DOUBLE PRECISION AVD, BVD, PIVD, DVCORR 00280821 C* 00290821 CBB ******************** BBCINITA ******************************00300821 C SPECIFICATION STATEMENTS 00310821 C** 00320821 CHARACTER ZVERS13, ZVERSD17, ZDATE17, ZPROG5, ZCOMPL20, 00330821 1 ZNAME20, ZTAPE10, ZPROJ13, REMRKS31, ZTAPED13 00340821 CBE ****************** BBCINITA ******************************00350821 CBB ******************** BBCINITB ******************************00360821 C** INITIALIZE SECTION 00370821 DATA ZVERS, ZVERSD, ZDATE 00380821 1 /'VERSION 2.1 ', '93/10/2121.02.00', 'NO DATETIME'/ 00390821 DATA ZCOMPL, ZNAME, ZTAPE 00400821 1 /'NONE SPECIFIED', 'NO COMPANY NAME', 'NO TAPE'/ 00410821 DATA ZPROJ, ZTAPED, ZPROG 00420821 1 /'NO PROJECT', 'NO TAPE DATE', 'XXXXX'/ 00430821 DATA REMRKS /' '/ 00440821 C** THE FOLLOWING 9 COMMENT LINES (CZ01, CZ02, ...) CAN BE REPLACED 00450821 C FOR IDENTIFYING THE TEST ENVIRONMENT 00460821 C 00470821 CZ01 ZVERS = 'VERSION OF THE COMPILER VALIDATION SYSTEM' 00480821 CZ02 ZVERSD = 'CREATION DATE/TIME OF THE COMPILER VALIDATION SYSTEM' 00490821 CZ03 ZPROG = 'PROGRAM NAME' 00500821 CZ04 ZDATE = 'DATE OF TEST' 00510821 CZ05 ZCOMPL = 'COMPILER IDENTIFICATION' 00520821 CZ06 ZPROJ = 'PROJECT NUMBER/IDENTIFICATION' 00530821 CZ07 ZNAME = 'NAME OF USER' 00540821 CZ08 ZTAPE = 'TAPE OWNER/ID' 00550821 CZ09 ZTAPED = 'DATE TAPE COPIED' 00560821 C 00570821 IVPASS = 0 00580821 IVFAIL = 0 00590821 IVDELE = 0 00600821 IVINSP = 0 00610821 IVTOTL = 0 00620821 IVTOTN = 0 00630821 ICZERO = 0 00640821 C 00650821 C I01 CONTAINS THE LOGICAL UNIT NUMBER FOR THE CARD READER. 00660821 I01 = 05 00670821 C I02 CONTAINS THE LOGICAL UNIT NUMBER FOR THE PRINTER. 00680821 I02 = 06 00690821 C 00700821 CX010 REPLACED BY FEXEC X-010 CONTROL CARD (CARD-READER UNIT NUMBER). 00710821 C THE CX010 CARD IS FOR OVERRIDING THE PROGRAM DEFAULT I01 = 5 00720821 CX011 REPLACED BY FEXEC X-011 CONTROL CARD. CX011 IS FOR SYSTEMS 00730821 C REQUIRING ADDITIONAL STATEMENTS FOR FILES ASSOCIATED WITH CX010. 00740821 C 00750821 CX020 REPLACED BY FEXEC X-020 CONTROL CARD (PRINTER UNIT NUMBER). 00760821 C THE CX020 CARD IS FOR OVERRIDING THE PROGRAM DEFAULT I02= 6 00770821 CX021 REPLACED BY FEXEC X-021 CONTROL CARD. CX021 IS FOR SYSTEMS 00780821 C REQUIRING ADDITIONAL STATEMENTS FOR FILES ASSOCIATED WITH CX020. 00790821 C 00800821 CBE ******************** BBCINITB ******************************00810821 NUVI = I02 00820821 IVTOTL = 19 00830821 ZPROG = 'FM821' 00840821 CBB ******************** BBCHED0A ******************************00850821 C 00860821 C WRITE REPORT TITLE 00870821 C 00880821 WRITE (I02, 90002) 00890821 WRITE (I02, 90006) 00900821 WRITE (I02, 90007) 00910821 WRITE (I02, 90008) ZVERS, ZVERSD 00920821 WRITE (I02, 90009) ZPROG, ZPROG 00930821 WRITE (I02, 90010) ZDATE, ZCOMPL 00940821 CBE ******************** BBCHED0A ******************************00950821 C* 00960821 C* HEADER FOR SEGMENT 190 00970821 WRITE(NUVI,19000) 00980821 19000 FORMAT(" "/" YDCOS - (190) INTRINSIC FUNCTIONS" // 00990821 1 " DCOS (DOUBLE PRECISION COSINE)" // 01000821 2 " ANS REF. - 15.3" ) 01010821 CBB ******************** BBCHED0B ******************************01020821 C WRITE DETAIL REPORT HEADERS 01030821 C 01040821 WRITE (I02,90004) 01050821 WRITE (I02,90004) 01060821 WRITE (I02,90013) 01070821 WRITE (I02,90014) 01080821 WRITE (I02,90015) IVTOTL 01090821 CBE ******************** BBCHED0B ******************************01100821 C* 01110821 PIVD = 3.1415926535897932384626434D0 01120821 C*** 01130821 CT001* TEST 1 ZERO (0.0), SINCE COS(0)=1 01140821 IVTNUM = 1 01150821 BVD = 0.0D0 01160821 AVD = DCOS(BVD) 01170821 IF (AVD - 0.9999999995D+00) 20010, 10010, 40010 01180821 40010 IF (AVD - 0.1000000001D+01) 10010, 10010, 20010 01190821 10010 IVPASS = IVPASS + 1 01200821 WRITE (NUVI, 80002) IVTNUM 01210821 GO TO 0011 01220821 20010 IVFAIL = IVFAIL + 1 01230821 DVCORR = 1.00000000000000000000D+00 01240821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01250821 0011 CONTINUE 01260821 CT002* TEST 2 VALUES NEAR PI 01270821 IVTNUM = 2 01280821 AVD = DCOS(PIVD) 01290821 IF (AVD + 0.1000000001D+01) 20020, 10020, 40020 01300821 40020 IF (AVD + 0.9999999995D+00) 10020, 10020, 20020 01310821 10020 IVPASS = IVPASS + 1 01320821 WRITE (NUVI, 80002) IVTNUM 01330821 GO TO 0021 01340821 20020 IVFAIL = IVFAIL + 1 01350821 DVCORR = -1.00000000000000000000D+00 01360821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01370821 0021 CONTINUE 01380821 CT003* TEST 3 PI - 1/16 01390821 IVTNUM = 3 01400821 BVD = 3.07909265358979323846D0 01410821 AVD = DCOS(BVD) 01420821 IF (AVD + 0.9980475112D+00) 20030, 10030, 40030 01430821 40030 IF (AVD + 0.9980475102D+00) 10030, 10030, 20030 01440821 10030 IVPASS = IVPASS + 1 01450821 WRITE (NUVI, 80002) IVTNUM 01460821 GO TO 0031 01470821 20030 IVFAIL = IVFAIL + 1 01480821 DVCORR = -0.99804751070009914963D+00 01490821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01500821 0031 CONTINUE 01510821 CT004* TEST 4 PI + 1/32 01520821 IVTNUM = 4 01530821 AVD = DCOS(3.17284265358979323846D0) 01540821 IF (AVD + 0.9995117590D+00) 20040, 10040, 40040 01550821 40040 IF (AVD + 0.9995117580D+00) 10040, 10040, 20040 01560821 10040 IVPASS = IVPASS + 1 01570821 WRITE (NUVI, 80002) IVTNUM 01580821 GO TO 0041 01590821 20040 IVFAIL = IVFAIL + 1 01600821 DVCORR = -0.99951175848513636924D+00 01610821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01620821 0041 CONTINUE 01630821 CT005* TEST 5 VALUES NEAR 2PI 01640821 IVTNUM = 5 01650821 BVD = PIVD 2.0D0 01660821 AVD = DCOS(BVD) 01670821 IF (AVD - 0.9999999995D+00) 20050, 10050, 40050 01680821 40050 IF (AVD - 0.1000000001D+01) 10050, 10050, 20050 01690821 10050 IVPASS = IVPASS + 1 01700821 WRITE (NUVI, 80002) IVTNUM 01710821 GO TO 0051 01720821 20050 IVFAIL = IVFAIL + 1 01730821 DVCORR = 1.00000000000000000000D+00 01740821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01750821 0051 CONTINUE 01760821 CT006* TEST 6 VALUES NEAR 2PI 01770821 IVTNUM = 6 01780821 BVD = (2.0D0 PIVD) - 1.0D0 / 64.0D0 01790821 AVD = DCOS(BVD) 01800821 IF (AVD - 0.9998779316D+00) 20060, 10060, 40060 01810821 40060 IF (AVD - 0.9998779327D+00) 10060, 10060, 20060 01820821 10060 IVPASS = IVPASS + 1 01830821 WRITE (NUVI, 80002) IVTNUM 01840821 GO TO 0061 01850821 20060 IVFAIL = IVFAIL + 1 01860821 DVCORR = 0.99987793217100665474D+00 01870821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01880821 0061 CONTINUE 01890821 CT007* TEST 7 VALUES NEAR 2PI 01900821 IVTNUM = 7 01910821 BVD = (2.0D0 PIVD) + 1.0D0 / 128.0D0 01920821 AVD = DCOS(BVD) 01930821 IF (AVD - 0.9999694820D+00) 20070, 10070, 40070 01940821 40070 IF (AVD - 0.9999694831D+00) 10070, 10070, 20070 01950821 10070 IVPASS = IVPASS + 1 01960821 WRITE (NUVI, 80002) IVTNUM 01970821 GO TO 0071 01980821 20070 IVFAIL = IVFAIL + 1 01990821 DVCORR = 0.99996948257709511331D+00 02000821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02010821 0071 CONTINUE 02020821 CT008* TEST 8 AN EXPRESSION PRESENTED TO DCOS 02030821 IVTNUM = 8 02040821 BVD = 350.0D1 02050821 AVD = DCOS(BVD / 100.0D1) 02060821 IF (AVD + 0.9364566878D+00) 20080, 10080, 40080 02070821 40080 IF (AVD + 0.9364566868D+00) 10080, 10080, 20080 02080821 10080 IVPASS = IVPASS + 1 02090821 WRITE (NUVI, 80002) IVTNUM 02100821 GO TO 0081 02110821 20080 IVFAIL = IVFAIL + 1 02120821 DVCORR = -0.93645668729079633770D+00 02130821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02140821 0081 CONTINUE 02150821 CT009* TEST 9 A NEGATIVE ARGUMENT 02160821 IVTNUM = 9 02170821 BVD = -1.5D0 02180821 AVD = DCOS(BVD) 02190821 IF (AVD - 0.7073720163D-01) 20090, 10090, 40090 02200821 40090 IF (AVD - 0.7073720171D-01) 10090, 10090, 20090 02210821 10090 IVPASS = IVPASS + 1 02220821 WRITE (NUVI, 80002) IVTNUM 02230821 GO TO 0091 02240821 20090 IVFAIL = IVFAIL + 1 02250821 DVCORR = 0.070737201667702910088D+00 02260821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02270821 0091 CONTINUE 02280821 CT010* TEST 10 LARGE VALUES TO CHECK ARGUMENT REDUCTION 02290821 IVTNUM = 10 02300821 AVD = DCOS(200.0D0) 02310821 IF (AVD - 0.4871876747D+00) 20100, 10100, 40100 02320821 40100 IF (AVD - 0.4871876753D+00) 10100, 10100, 20100 02330821 10100 IVPASS = IVPASS + 1 02340821 WRITE (NUVI, 80002) IVTNUM 02350821 GO TO 0101 02360821 20100 IVFAIL = IVFAIL + 1 02370821 DVCORR = 0.48718767500700591035D+00 02380821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02390821 0101 CONTINUE 02400821 CT011* TEST 11 LARGE VALUES TO CHECK ARGUMENT REDUCTION 02410821 IVTNUM = 11 02420821 AVD = DCOS(-31416.0D0) 02430821 IF (AVD - 0.9973027257D+00) 20110, 10110, 40110 02440821 40110 IF (AVD - 0.9973027268D+00) 10110, 10110, 20110 02450821 10110 IVPASS = IVPASS + 1 02460821 WRITE (NUVI, 80002) IVTNUM 02470821 GO TO 0111 02480821 20110 IVFAIL = IVFAIL + 1 02490821 DVCORR = 0.99730272627420107808D+00 02500821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02510821 0111 CONTINUE 02520821 CT012* TEST 12 VALUES NEAR PI/2 02530821 IVTNUM = 12 02540821 AVD = DCOS(1.57079632679489661923D0) 02550821 IF (AVD + 0.5000000000D-09) 20120, 10120, 40120 02560821 40120 IF (AVD - 0.5000000000D-09) 10120, 10120, 20120 02570821 10120 IVPASS = IVPASS + 1 02580821 WRITE (NUVI, 80002) IVTNUM 02590821 GO TO 0121 02600821 20120 IVFAIL = IVFAIL + 1 02610821 DVCORR = 0.00000000000000000000D+00 02620821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02630821 0121 CONTINUE 02640821 CT013* TEST 13 (PI / 2) - 1/32 02650821 IVTNUM = 13 02660821 BVD = (1.53954632679489661923D0) 02670821 AVD = DCOS(BVD) 02680821 IF (AVD - 0.3124491397D-01) 20130, 10130, 40130 02690821 40130 IF (AVD - 0.3124491400D-01) 10130, 10130, 20130 02700821 10130 IVPASS = IVPASS + 1 02710821 WRITE (NUVI, 80002) IVTNUM 02720821 GO TO 0131 02730821 20130 IVFAIL = IVFAIL + 1 02740821 DVCORR = 0.031244913985326078739D+00 02750821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02760821 0131 CONTINUE 02770821 CT014* TEST 14 (PI / 2) + 1/16 02780821 IVTNUM = 14 02790821 AVD = DCOS(1.63329632679489661923D0) 02800821 IF (AVD + 0.6245931788D-01) 20140, 10140, 40140 02810821 40140 IF (AVD + 0.6245931781D-01) 10140, 10140, 20140 02820821 10140 IVPASS = IVPASS + 1 02830821 WRITE (NUVI, 80002) IVTNUM 02840821 GO TO 0141 02850821 20140 IVFAIL = IVFAIL + 1 02860821 DVCORR = -0.062459317842380198585D+00 02870821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02880821 0141 CONTINUE 02890821 CT015* TEST 15 VALUES NEAR 3PI/2 02900821 IVTNUM = 15 02910821 BVD = 3.0D0 PIVD / 2.0D0 02920821 AVD = DCOS(BVD) 02930821 IF (AVD + 0.5000000000D-09) 20150, 10150, 40150 02940821 40150 IF (AVD - 0.5000000000D-09) 10150, 10150, 20150 02950821 10150 IVPASS = IVPASS + 1 02960821 WRITE (NUVI, 80002) IVTNUM 02970821 GO TO 0151 02980821 20150 IVFAIL = IVFAIL + 1 02990821 DVCORR = 0.00000000000000000000D+00 03000821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03010821 0151 CONTINUE 03020821 CT016* TEST 16 VALUES NEAR 3PI/2 03030821 IVTNUM = 16 03040821 BVD = (3.0D0 PIVD / 2.0D0) + 1.0D0 / 16.0D0 03050821 AVD = DCOS(BVD) 03060821 IF (AVD - 0.6245931781D-01) 20160, 10160, 40160 03070821 40160 IF (AVD - 0.6245931788D-01) 10160, 10160, 20160 03080821 10160 IVPASS = IVPASS + 1 03090821 WRITE (NUVI, 80002) IVTNUM 03100821 GO TO 0161 03110821 20160 IVFAIL = IVFAIL + 1 03120821 DVCORR = 0.062459317842380198585D+00 03130821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03140821 0161 CONTINUE 03150821 CT017* TEST 17 VALUES NEAR 3PI/2 03160821 IVTNUM = 17 03170821 BVD = (3.0D0 PIVD / 2.0D0) - 1.0D0 / 512.0D0 03180821 AVD = DCOS(BVD) 03190821 IF (AVD + 0.1953123760D-02) 20170, 10170, 40170 03200821 40170 IF (AVD + 0.1953123757D-02) 10170, 10170, 20170 03210821 10170 IVPASS = IVPASS + 1 03220821 WRITE (NUVI, 80002) IVTNUM 03230821 GO TO 0171 03240821 20170 IVFAIL = IVFAIL + 1 03250821 DVCORR = -0.0019531237582368040269D+00 03260821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03270821 0171 CONTINUE 03280821 CT018* TEST 18 ARGUMENT OF LOW MAGNITUDE 03290821 IVTNUM = 18 03300821 BVD = -3.1415926535898D-35 03310821 AVD = DCOS(BVD) 03320821 IF (AVD - 0.9999999995D+00) 20180, 10180, 40180 03330821 40180 IF (AVD - 0.1000000001D+01) 10180, 10180, 20180 03340821 10180 IVPASS = IVPASS + 1 03350821 WRITE (NUVI, 80002) IVTNUM 03360821 GO TO 0181 03370821 20180 IVFAIL = IVFAIL + 1 03380821 DVCORR = 1.00000000000000000000D+00 03390821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03400821 0181 CONTINUE 03410821 CT019* TEST 19 THE FUNCTION APPLIED TWICE 03420821 IVTNUM = 19 03430821 AVD = DCOS(PIVD / 4.0D0) * DCOS(3.0D0 * PIVD / 4.0D0) 03440821 IF (AVD + 0.5000000003D+00) 20190, 10190, 40190 03450821 40190 IF (AVD + 0.4999999997D+00) 10190, 10190, 20190 03460821 10190 IVPASS = IVPASS + 1 03470821 WRITE (NUVI, 80002) IVTNUM 03480821 GO TO 0191 03490821 20190 IVFAIL = IVFAIL + 1 03500821 DVCORR = -0.5000000000000000000000D+00 03510821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03520821 0191 CONTINUE 03530821 C*** 03540821 CBB ******************** BBCSUM0 ******************************03550821 C WRITE OUT TEST SUMMARY 03560821 C 03570821 IVTOTN = IVPASS + IVFAIL + IVDELE + IVINSP 03580821 WRITE (I02, 90004) 03590821 WRITE (I02, 90014) 03600821 WRITE (I02, 90004) 03610821 WRITE (I02, 90020) IVPASS 03620821 WRITE (I02, 90022) IVFAIL 03630821 WRITE (I02, 90024) IVDELE 03640821 WRITE (I02, 90026) IVINSP 03650821 WRITE (I02, 90028) IVTOTN, IVTOTL 03660821 CBE ******************** BBCSUM0 ******************************03670821 CBB ******************** BBCFOOT0 ******************************03680821 C WRITE OUT REPORT FOOTINGS 03690821 C 03700821 WRITE (I02,90016) ZPROG, ZPROG 03710821 WRITE (I02,90018) ZPROJ, ZNAME, ZTAPE, ZTAPED 03720821 WRITE (I02,90019) 03730821 CBE ******************** BBCFOOT0 ******************************03740821 CBB ******************** BBCFMT0A ******************************03750821 C FORMATS FOR TEST DETAIL LINES 03760821 C 03770821 80000 FORMAT (" ",2X,I3,4X,"DELETED",32X,A31) 03780821 80002 FORMAT (" ",2X,I3,4X," PASS ",32X,A31) 03790821 80004 FORMAT (" ",2X,I3,4X,"INSPECT",32X,A31) 03800821 80008 FORMAT (" ",2X,I3,4X," FAIL ",32X,A31) 03810821 80010 FORMAT (" ",2X,I3,4X," FAIL ",/," ",15X,"COMPUTED= " , 03820821 1I6,/," ",15X,"CORRECT= " ,I6) 03830821 80012 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 03840821 1E12.5,/," ",16X,"CORRECT= " ,E12.5) 03850821 80018 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 03860821 1A21,/," ",16X,"CORRECT= " ,A21) 03870821 80020 FORMAT (" ",16X,"COMPUTED= " ,A21,1X,A31) 03880821 80022 FORMAT (" ",16X,"CORRECT= " ,A21,1X,A31) 03890821 80024 FORMAT (" ",16X,"COMPUTED= " ,I6,16X,A31) 03900821 80026 FORMAT (" ",16X,"CORRECT= " ,I6,16X,A31) 03910821 80028 FORMAT (" ",16X,"COMPUTED= " ,E12.5,10X,A31) 03920821 80030 FORMAT (" ",16X,"CORRECT= " ,E12.5,10X,A31) 03930821 80050 FORMAT (" ",48X,A31) 03940821 CBE ******************** BBCFMT0A ******************************03950821 CBB ******************** BBCFMAT1 ******************************03960821 C FORMATS FOR TEST DETAIL LINES - FULL LANGUAGE 03970821 C 03980821 80031 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 03990821 1D17.10,/," ",16X,"CORRECT= " ,D17.10) 04000821 80033 FORMAT (" ",16X,"COMPUTED= " ,D17.10,10X,A31) 04010821 80035 FORMAT (" ",16X,"CORRECT= " ,D17.10,10X,A31) 04020821 80037 FORMAT (" ",16X,"COMPUTED= " ,"(",E12.5,", ",E12.5,")",6X,A31) 04030821 80039 FORMAT (" ",16X,"CORRECT= " ,"(",E12.5,", ",E12.5,")",6X,A31) 04040821 80041 FORMAT (" ",16X,"COMPUTED= " ,"(",F12.5,", ",F12.5,")",6X,A31) 04050821 80043 FORMAT (" ",16X,"CORRECT= " ,"(",F12.5,", ",F12.5,")",6X,A31) 04060821 80045 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 04070821 1"(",F12.5,", ",F12.5,")"/," ",16X,"CORRECT= " , 04080821 2"(",F12.5,", ",F12.5,")") 04090821 CBE ******************** BBCFMAT1 ******************************04100821 CBB ******************** BBCFMT0B ******************************04110821 C FORMAT STATEMENTS FOR PAGE HEADERS 04120821 C** 04130821 90002 FORMAT ("1") 04140821 90004 FORMAT (" ") 04150821 90006 FORMAT (" ",20X,"NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY" )04160821 90007 FORMAT (" ",19X,"FORTRAN COMPILER VALIDATION SYSTEM" ) 04170821 90008 FORMAT (" ",21X,A13,A17) 04180821 90009 FORMAT (" ",/," ",A5,"BEGIN",12X,"TEST RESULTS - " ,A5,/) 04190821 90010 FORMAT (" ",8X,"TEST DATETIME= " ,A17," - COMPILER= " ,A20) 04200821 90013 FORMAT (" "," TEST ","PASS/FAIL " ,6X,"DISPLAYED RESULTS" , 04210821 1 7X,"REMARKS",24X) 04220821 90014 FORMAT (" ","----------------------------------------------" , 04230821 1 "---------------------------------" ) 04240821 90015 FORMAT (" ",48X,"THIS PROGRAM HAS " ,I3," TESTS",/) 04250821 C* 04260821 C FORMAT STATEMENTS FOR REPORT FOOTINGS 04270821 C** 04280821 90016 FORMAT (" ",/," ",A5,"END",14X,"END OF TEST - " ,A5,/) 04290821 90018 FORMAT (" ",A13,13X,A20," * ",A10,"/", 04300821 1 A13) 04310821 90019 FORMAT (" ","FOR OFFICIAL USE ONLY " ,35X,"COPYRIGHT 1982" ) 04320821 C** 04330821 C FORMAT STATEMENTS FOR RUN SUMMARY 04340821 C 04350821 90020 FORMAT (" ",21X,I5," TESTS PASSED" ) 04360821 90022 FORMAT (" ",21X,I5," TESTS FAILED" ) 04370821 90024 FORMAT (" ",21X,I5," TESTS DELETED" ) 04380821 90026 FORMAT (" ",21X,I5," TESTS REQUIRE INSPECTION" ) 04390821 90028 FORMAT (" ",21X,I5," OF ",I3," TESTS EXECUTED" ) 04400821 CBE ******************** BBCFMT0B ******************************04410821 C* 04420821 C*** END OF TEST SEGMENT 190 04430821 STOP 04440821 END 04450821 04460821	Fortran/UnitTests/fcvs21_f95/FM821.f
c======================================================================= c c subroutine COVL c c Empirical Covariance matrix with different data length (cf. covm.f) c c----------------------------------------------------------------------- SUBROUTINE covl ( n, p, length, x, dwork, cov, info ) c----------------------------------------------------------------------- c c INPUT c n : number of values integer c p : number of assets (p > 0) integer c length : lenght of each asset hist. (p) integer c x : assets values (np) double c c WORKSPACE c dwork : (p(1 + n + p) + 2n) double c c OUTPUT c cov : covariance matrix (pp) double c info : = 0 successful exit integer c c CALL c EVIMAX : maximum of a vector (integers) c YMP : copy a sub-block of a vectorized matrix in a vectorized matrix c COVMVM : covariance matrix and the mean vector c VARIAN : variance c c----------------------------------------------------------------------- c IMPLICIT NONE c c arguments i/o INTEGER n, p, info INTEGER length() DOUBLE PRECISION x(n,), cov(p,) c c workspaces DOUBLE PRECISION dwork() c c local variables INTEGER i, j, l, izero, iun, ideux, maxlength, lmin, & pdwork, pdr, pdw, pdv, pdm PARAMETER ( izero = 0, iun = 1, ideux = 2 ) c c intrinsic functions INTRINSIC min c c----------------------------------------------------------------------- c c initialization info = 0 c c pointers for double precision work space : dwork c ------------------------------------------------- pdwork = 1 pdr = pdwork c pdr : pointer for sub-values, needs (n2) pdw = pdr + ( 2n ) c pdw : pointer for dwork COVMVM, needs ( np) pdv = pdw + ( np ) c pdv : pointer for rho (in COVM), needs (p) pdm = pdv + ( p ) c pdm : pointer for covariance, needs (pp) c c Total size of dwork array = p(1 + n + p) + 2*n c c----------------------------------------------------------------------- c c find the max length of assets history CALL EVIMAX ( p, length, maxlength ) IF (maxlength .GT. n) THEN info = -100001 RETURN ENDIF c c covariance matrix DO i = 1,p-1 DO j = i+1,p c c covariance of two assets (on the smallest length) lmin = min(length(i), length(j)) CALL YMP ( n, p, x, lmin, iun, iun, i, & dwork(pdr), info ) CALL YMP ( n, p, x, lmin, iun, iun, j, & dwork(pdr + lmin), info ) c YMP : info = 0 by construction CALL covmvm ( lmin, ideux, dwork(pdr), dwork(pdw), & dwork(pdv), dwork(pdm), info) IF (info .lt. 0) RETURN c c writing in full covariance matrix of non-diagonal elements c of 2x2 matrix cov(j,i) = dwork(pdm + 1) cov(i,j) = dwork(pdm + 2) ENDDO ENDDO c c computing variance (with all values) DO i = 1,p l = length(i) CALL VARIAN ( l, x(1,i), cov(i,i), info ) IF (info .LT. 0) RETURN ENDDO RETURN END	src/math/analysis/cov/covl.f
subroutine rpt2(ixy,imp,maxm,meqn,mwaves,maux,mbc,mx,ql,qr,aux1,aux2,aux3,asdq,bmasdq,bpasdq) ! ============================================================================ ! Solves transverse Riemann problem for the multilayer shallow water ! equations in 2D with topography and wind forcing: ! (rho_1 h_1)_t + (rho_1 h_1 u_1)_x + (rho_1 h_1 v_1)_y = 0 ! (rho_1 h_1 u_1)_t + (rho_1 h_1 u_1^2 + 1/2 g rho_1 h_1^2)_x + (rho_1 h_1 u_1 v_1)_y = -g rho_1 h_1(r(h_2)_x + B_x) ! (rho_1 h_1 v_1)_t + (rho_1 h_1 u_1 v_1)_x + (rho_1 h_1 v_1^2 + 1/2 g rho_1 h_1^2)_y = -g rho_1 h_1(r(h_2)_y + B_y) ! (rho_2 h_2)_t + (rho_2 h_2 u_2)_x + (rho_2 h_2 v_2)_y = 0 ! (rho_2 h_2 u_2)_t + (rho_2 h_2 u_2^2 + 1/2 g rho_2 h_2^2)_x + (rho_2 h_2 u_2 v_2)_y = -g rho_2 h_2(h_1 + B)_x ! (rho_2 h_2 v_2)_t + (rho_2 h_2 u_2 v_2)_x + (rho_2 h_2 v_2^2 + 1/2 g rho_2 h_2^2)_y = -g rho_2 h_2(h_1 + B)_y ! ! On input, ql contains the state vector at the left edge of each cell and qr ! contains the state vector at the right edge of each cell ! ! \| \| ! qr(i-1)\|ql(i) qr(i)\|ql(i+1) ! ----------\|------------\|---------- ! i-1 i i+1 ! ! The i-1/2 Riemann problem has left state qr(i-1) and right state ql(i) ! ! If ixy == 1 then the sweep direction is x, ixy == 2 implies the y direction ! if imp == 1 then the split is in the negative direction, imp == 2 positive ! ! Kyle T. Mandli (10-13-2010) ! ============================================================================== ! Note that this version does not work with PyClaw due to missing parameters ! from the modules. ! ============================================================================== use amr_module, only: mcapa use geoclaw_module, only: g => grav, rho, earth_radius, pi use multilayer_module, only: num_layers, eigen_method, inundation_method use multilayer_module, only: eigen_func, inundation_eigen_func use multilayer_module, only: dry_tolerance, aux_layer_index implicit none ! Input arguments integer, intent(in) :: ixy,maxm,meqn,mwaves,mbc,mx,imp,maux double precision, dimension(meqn,1-mbc:maxm+mbc), intent(in) :: ql,qr double precision, dimension(meqn,1-mbc:maxm+mbc), intent(inout) :: asdq double precision, dimension(maux,1-mbc:maxm+mbc), intent(in) :: aux1,aux2,aux3 ! Ouput double precision, dimension(meqn,1-mbc:maxm+mbc), intent(out) :: bmasdq,bpasdq ! Local storage integer :: i,j,m,mw,n_index,t_index,info double precision :: dxdcm,dxdcp double precision, dimension(3) :: b double precision, dimension(6) :: s,delta,pivot double precision, dimension(6,6) :: eig_vec,A ! Single layer solver storage double precision :: ql_sl(3),qr_sl(3) double precision :: aux1_sl(3,2),aux2_sl(3,2),aux3_sl(3,2) double precision :: asdq_sl(3),bmasdq_sl(3),bpasdq_sl(3) double precision :: ts(6),teig_vec(6,6) integer :: layer_index logical :: dry_state_l(2),dry_state_r(2) double precision :: h(2),hu(2),hv(2),u(2),v(2),h_hat(2),gamma double precision :: alpha(4) ! Output array intializations bmasdq = 0.d0 bpasdq = 0.d0 ! Normal and transverse sweep directions if (ixy == 1) then n_index = 2 t_index = 3 else n_index = 3 t_index = 2 endif ! ======================================================================== ! Loop over each cell and decompose fluctuations into transverse waves ! if ixy == 1, and imp == 1 splitting amdq into up and down going ! if ixy == 1, and imp == 2 splitting apdq into up and down going ! if ixy == 2, and imp == 1 splitting bmdq into left and right going ! if ixy == 2, and imp == 2 splitting bpdq into left and right going ! ======================================================================== do i=2-mbc,mx+mbc ! Parse states and pick out important states do j=1,2 layer_index = 3(j-1) ! Solving in the left grid cell (A^-\Delta Q) if (imp == 1) then h(j) = qr(layer_index + 1,i-1) / rho(j) hu(j) = qr(layer_index + n_index,i-1) / rho(j) hv(j) = qr(layer_index + t_index,i-1) / rho(j) b(3) = aux3(1,i-1) b(2) = aux2(1,i-1) b(1) = aux1(1,i-1) h_hat(1) = aux2(aux_layer_index,i-1) h_hat(2) = aux2(aux_layer_index+1,i-1) ! Solving in the right grid cell (A^+ \Delta Q) else h(j) = ql(layer_index + 1,i) / rho(j) hu(j) = ql(layer_index + n_index,i) / rho(j) hv(j) = ql(layer_index + t_index,i) / rho(j) b(3) = aux3(1,i) b(2) = aux2(1,i) b(1) = aux1(1,i) h_hat = aux2(aux_layer_index:aux_layer_index+1,i) endif if (h(j) < dry_tolerance(j)) then u(j) = 0.d0 v(j) = 0.d0 else u(j) = hu(j) / h(j) v(j) = hv(j) / h(j) endif enddo ! ==================================================================== ! Check for dry states in the bottom layer, ! This is if we are right next to a wall, use single layer solver if (h(1) < dry_tolerance(1) .or. h(2) < dry_tolerance(2)) then ! Storage for single layer rpt2 if (h(1) < dry_tolerance(1)) then ql_sl = ql(1:3,i) / rho(1) qr_sl = qr(1:3,i-1) / rho(1) asdq_sl = asdq(1:3,i) / rho(1) else if (h(2) < dry_tolerance(2)) then ql_sl = ql(4:6,i) / rho(2) qr_sl = qr(4:6,i-1) / rho(2) asdq_sl = asdq(4:6,i) / rho(2) else print , "Invalid dry-state found." print , " h = ", h stop end if aux1_sl = aux1(1:3,i-1:i) aux2_sl = aux2(1:3,i-1:i) aux3_sl = aux3(1:3,i-1:i) ! Call solve call rpt2_single_layer(ixy,imp,ql_sl,qr_sl,aux1_sl,aux2_sl, & aux3_sl,asdq_sl,bmasdq_sl,bpasdq_sl) if (h(1) < dry_tolerance(1)) then bmasdq(1:3,i) = bmasdq_sl rho(1) bpasdq(1:3,i) = bpasdq_sl * rho(1) else if (h(2) < dry_tolerance(2)) then bmasdq(4:6,i) = bmasdq_sl * rho(2) bpasdq(4:6,i) = bpasdq_sl * rho(2) end if cycle endif ! ==================================================================== ! Two-layers with no dry states in the vicinity ! Compute eigenvector matrix - Linearized system if (eigen_method == 1) then call eigen_func(h_hat,h_hat,v,v,u,u,t_index,n_index,s,eig_vec) else call eigen_func(h,h,v,v,u,u,t_index,n_index,s,eig_vec) endif ! ==================================================================== ! Solve projection onto eigenvectors - Use LAPACK's dgesv routine ! N - (int) - Number of linear equations (6) ! NRHS - (int) - Number of right hand sides (1) ! A - (dp(6,6)) - Coefficient matrix, in this case eig_vec ! LDA - (int) - Leading dimension of A (6) ! IPIV - (int(N)) - Pivot indices ! B - (dp(LDB,NRHS)) - RHS of equations (delta) ! LDB - (int) - Leading dimension of B (6) ! INFO - (int) - Status of result ! Note that the solution (betas) are in delta after the call delta = asdq(:,i) ! This is what we are splitting up A = eig_vec ! We need to do this as the return matrix is modified and ! we have to use eig_vec again to compute fwaves call dgesv(6,1,A,6,pivot,delta,6,info) if (.not.(info == 0)) then print "(a,i2,a,i2)","In transverse solver: ixy=",ixy," imp=",imp print "(a,i3)"," Error solving R beta = delta,",info print "(a,i3)"," Location: ",i print "(a,6d16.8)"," Eigenspeeds: ",s(:) print "(a)"," Eigenvectors:" do j=1,6 print "(a,6d16.8)"," ",(eig_vec(j,mw),mw=1,6) enddo print "(6d16.8)",h,hu,hv stop endif ! Handle lat-long coordinate systems if (mcapa > 0) then if (ixy == 2) then dxdcp=(earth_radiuspi/180.d0) dxdcm = dxdcp else if (imp == 1) then dxdcp = earth_radiuspicos(aux3(3,i-1))/180.d0 dxdcm = earth_radiuspicos(aux1(3,i-1))/180.d0 else dxdcp = earth_radiuspicos(aux3(3,i))/180.d0 dxdcm = earth_radiuspicos(aux1(3,i))/180.d0 endif endif else dxdcp = 1.d0 dxdcm = 1.d0 endif ! ==================================================================== ! Determine transverse fluctuations ! We also check to see if the fluctuation would enter a dry cell and ! skip that split if this is true do mw=1,mwaves if (s(mw) > 0.d0) then if (h(2) + b(2) < b(3)) then bpasdq(1:3,i) = bpasdq(1:3,i) + dxdcp s(mw) * delta(mw) * eig_vec(1:3,mw) else bpasdq(:,i) = bpasdq(:,i) + dxdcp * s(mw) * delta(mw) * eig_vec(:,mw) endif else if (s(mw) < 0.d0) then if (h(2) + b(2) < b(1)) then bmasdq(1:3,i) = bmasdq(1:3,i) + dxdcm * s(mw) * delta(mw) * eig_vec(1:3,mw) else bmasdq(:,i) = bmasdq(:,i) + dxdcm * s(mw) * delta(mw) * eig_vec(:,mw) endif endif enddo enddo end subroutine rpt2 subroutine rpt2_single_layer(ixy,imp,ql,qr,aux1,aux2,aux3,asdq,bmasdq,bpasdq) ! Single layer point-wise transverse Riemann solver using an einfeldt Jacobian ! Note that there have been some changes to variable definitions in this ! routine from the original vectorized one. ! ! Adapted from geoclaw 4-23-2011 use amr_module, only: mcapa use geoclaw_module, only: g => grav, earth_radius, pi use multilayer_module, only: num_layers, eigen_method, inundation_method use multilayer_module, only: dry_tolerance implicit none integer, parameter :: meqn = 3 integer, parameter :: mwaves = 3 integer, intent(in) :: ixy,imp real(kind=8), intent(in) :: ql(meqn) ! = ql(i,meqn) real(kind=8), intent(in) :: qr(meqn) ! = qr(i-1,meqn) real(kind=8), intent(in out) :: asdq(meqn) real(kind=8), intent(in out) :: bmasdq(meqn) real(kind=8), intent(in out) :: bpasdq(meqn) ! Since we need two values of aux, 1 = i-1 and 2 = i real(kind=8), intent(in) :: aux1(2,3) real(kind=8), intent(in) :: aux2(2,3) real(kind=8), intent(in) :: aux3(2,3) real(kind=8) :: s(3) real(kind=8) :: r(3,3) real(kind=8) :: beta(3) real(kind=8) :: abs_tol real(kind=8) :: hl,hr,hul,hur,hvl,hvr,vl,vr,ul,ur,bl,br real(kind=8) :: uhat,vhat,hhat,roe1,roe3,s1,s2,s3,s1l,s3r real(kind=8) :: delf1,delf2,delf3,dxdcd,dxdcu real(kind=8) :: dxdcm,dxdcp,topo1,topo3,eta,tol integer :: m,mw,mu,mv tol = dry_tolerance(1) abs_tol = tol if (ixy.eq.1) then mu = 2 mv = 3 else mu = 3 mv = 2 endif hl=qr(1) hr=ql(1) hul=qr(mu) hur=ql(mu) hvl=qr(mv) hvr=ql(mv) !===========determine velocity from momentum=========================== if (hl.lt.abs_tol) then hl=0.d0 ul=0.d0 vl=0.d0 else ul=hul/hl vl=hvl/hl endif if (hr.lt.abs_tol) then hr=0.d0 ur=0.d0 vr=0.d0 else ur=hur/hr vr=hvr/hr endif do mw=1,mwaves s(mw)=0.d0 beta(mw)=0.d0 do m=1,meqn r(m,mw)=0.d0 enddo enddo dxdcp = 1.d0 dxdcm = 1.d0 if (hl.le.dry_tolerance(1).and.hr.le.dry_tolerance(1)) go to 90 !check and see if cell that transverse waves are going in is high and dry if (imp.eq.1) then eta = qr(1) + aux2(1,1) topo1 = aux1(1,1) topo3 = aux3(1,1) else eta = ql(1) + aux2(1,2) topo1 = aux1(1,2) topo3 = aux3(1,2) endif if (eta.lt.max(topo1,topo3)) go to 90 if (mcapa > 0) then if (ixy.eq.2) then dxdcp=(earth_radiuspi/180.d0) dxdcm = dxdcp else if (imp.eq.1) then dxdcp = earth_radiuspicos(aux3(3,1))/180.d0 dxdcm = earth_radiuspicos(aux1(3,1))/180.d0 else dxdcp = earth_radiuspicos(aux3(3,2))/180.d0 dxdcm = earth_radiuspicos(aux1(3,2))/180.d0 endif endif endif !=====Determine some speeds necessary for the Jacobian================= vhat=(vrdsqrt(hr))/(dsqrt(hr)+dsqrt(hl)) + & (vldsqrt(hl))/(dsqrt(hr)+dsqrt(hl)) uhat=(urdsqrt(hr))/(dsqrt(hr)+dsqrt(hl)) + & (uldsqrt(hl))/(dsqrt(hr)+dsqrt(hl)) hhat=(hr+hl)/2.d0 roe1=vhat-dsqrt(ghhat) roe3=vhat+dsqrt(ghhat) s1l=vl-dsqrt(ghl) s3r=vr+dsqrt(ghr) s1=dmin1(roe1,s1l) s3=dmax1(roe3,s3r) s2=0.5d0(s1+s3) s(1)=s1 s(2)=s2 s(3)=s3 !=======================Determine asdq decomposition (beta)============ delf1=asdq(1) delf2=asdq(mu) delf3=asdq(mv) beta(1) = (s3delf1/(s3-s1))-(delf3/(s3-s1)) beta(2) = -s2delf1 + delf2 beta(3) = (delf3/(s3-s1))-(s1delf1/(s3-s1)) !======================End ================================================= !=====================Set-up eigenvectors=================================== r(1,1) = 1.d0 r(2,1) = s2 r(3,1) = s1 r(1,2) = 0.d0 r(2,2) = 1.d0 r(3,2) = 0.d0 r(1,3) = 1.d0 r(2,3) = s2 r(3,3) = s3 !============================================================================ 90 continue !============= compute fluctuations========================================== do m=1,meqn bmasdq(m)=0.0d0 bpasdq(m)=0.0d0 enddo do mw=1,3 if (s(mw).lt.0.d0) then bmasdq(1) =bmasdq(1) + dxdcms(mw)beta(mw)r(1,mw) bmasdq(mu)=bmasdq(mu)+ dxdcms(mw)beta(mw)r(2,mw) bmasdq(mv)=bmasdq(mv)+ dxdcms(mw)beta(mw)r(3,mw) elseif (s(mw).gt.0.d0) then bpasdq(1) =bpasdq(1) + dxdcps(mw)beta(mw)r(1,mw) bpasdq(mu)=bpasdq(mu)+ dxdcps(mw)beta(mw)r(2,mw) bpasdq(mv)=bpasdq(mv)+ dxdcps(mw)beta(mw)*r(3,mw) endif enddo end subroutine rpt2_single_layer	src/rpt2_layered_shallow_water.f90
SUBROUTINE RU_PLVL ( field, above, level, pres, iret ) C************************************************************************ C* RU_PLVL * C* * C* This subroutine gets the level number and pressure from a group * C* which is in the form LLPPP. LL must be the same integer, repeated; * C* for example, 11 corresponds to level 1. * C* * C* RU_PLVL ( FIELD, ABOVE, LEVEL, PRES, IRET ) * C* * C* Input parameters: * C* FIELD CHAR* Input field * C* ABOVE LOGICAL Above 100 mb flag * C* * C* Output parameters: * C* LEVEL INTEGER Level number * C* -1 = level not found * C* 0 = valid surface level * C* 1 - 9 = valid levels * C* PRES REAL Pressure * C* IRET INTEGER Return code * C* 0 = normal return * C** * C* Log: * C* M. desJardins/GSFC 6/86 * C************************************************************************ INCLUDE 'GEMPRM.PRM' C* LOGICAL above CHARACTER() field CHARACTER clev(10)2 CHARACTER cc2 DATA clev / '00','11','22','33','44','55','66', + '77','88','99' / C------------------------------------------------------------------------ iret = 0 level = -1 pres = RMISSD C C* Check first two character for level number. C cc = field ( 1:2 ) DO i = 1, 10 IF ( cc .eq. clev (i) ) level = i - 1 END DO C C* If a level was found, decode the pressure. C IF ( level .ne. -1 ) THEN CALL ST_INTG ( field (3:5), ipres, ier ) C C* Save the pressure if it could be decoded. C IF ( ier .eq. 0 ) THEN C C* Pressures above 100 mb are in tenths; below 100 mb are C* in units. C IF ( above ) THEN pres = FLOAT ( ipres ) / 10. ELSE pres = FLOAT ( ipres ) IF ( pres .lt. 100. ) pres = pres + 1000. END IF C C* If the pressure is missing, reset the level to -1. C ELSE level = -1 END IF END IF C* RETURN END	gempak/source/bridge/ru/ruplvl.f
! Run with -np 5 and s = 18. Sometimes MPI_Barrier doesn't help if the output ! buffer is not flushed on time. program scatterv use mpi_f08 implicit none type(MPI_Comm) :: comm integer :: my_rank, n_ranks, root integer :: s, i, remainder, quotient, displacement, count, rank, b, e integer, allocatable :: rbuf(:), sbuf(:) integer, allocatable :: counts(:), displacements(:) call MPI_Init() comm = MPI_COMM_WORLD call MPI_Comm_size(comm, n_ranks) call MPI_Comm_rank(comm, my_rank) root = 0 ! Read-in `s` on rank 0, allocate sbuf(s) only on rank 0 and later vector- ! scatter it to other ranks. s = 0 if (my_rank == root) read , s allocate(sbuf(s)) if (my_rank == root) sbuf(:) = [ (i, i = 1, s) ] call MPI_Bcast(s, 1, MPI_INTEGER, root, comm) remainder = modulo(s, n_ranks) quotient = (s - remainder) / n_ranks allocate(counts(0:n_ranks - 1)) allocate(displacements(0:n_ranks - 1)) displacement = 0 do rank = 0, n_ranks - 1 if (rank < remainder) then counts(rank) = quotient + 1 else counts(rank) = quotient end if displacements(rank) = displacement displacement = displacement + counts(rank) if (rank == my_rank) then count = counts(rank) b = displacements(rank) + 1 e = displacements(rank) + count end if end do allocate(rbuf(b:e), source=0) call print_vals() call MPI_Scatterv(sbuf, counts, displacements, MPI_INTEGER, & rbuf, count, MPI_INTEGER, root, comm) call print_vals() if (allocated(sbuf)) deallocate(sbuf) if (allocated(rbuf)) deallocate(rbuf) if (allocated(counts)) deallocate(counts) if (allocated(displacements)) deallocate(displacements) call MPI_Finalize() contains !--------------------------------------------------------------------------- subroutine print_vals() integer :: rank do rank = 0, n_ranks - 1 if (rank == my_rank) then print "(a, i0, a, (i2, 1x))", "Rank ", rank, ", sbuf(:)=", sbuf end if call MPI_Barrier(comm) end do do rank = 0, n_ranks - 1 if (rank == my_rank) then print "(a, i0, a, (i2, 1x))", "Rank ", rank, ", rbuf(:)=", rbuf end if call MPI_Barrier(comm) end do if (my_rank == 0) print end subroutine print_vals !--------------------------------------------------------------------------- end program scatterv	Lecture_12/collectives/scatterv.f90
module bc_state_turbo_interface_steady #include <messenger.h> use mod_kinds, only: rk,ik use mod_constants, only: ZERO, ONE, TWO, HALF, ME, CYLINDRICAL, & XI_MIN, XI_MAX, ETA_MIN, ETA_MAX, ZETA_MIN, ZETA_MAX, PI use mod_fluid, only: gam, Rgas, cp use type_point, only: point_t use type_mesh, only: mesh_t use type_bc_state, only: bc_state_t use bc_giles_HB_base, only: giles_HB_base_t use type_bc_patch, only: bc_patch_t use type_chidg_worker, only: chidg_worker_t use type_properties, only: properties_t use type_face_info, only: face_info_t, face_info_constructor use type_element_info, only: element_info_t use ieee_arithmetic, only: ieee_is_nan use mpi_f08, only: mpi_comm use DNAD_D implicit none !> Name: inlet - 3D Giles !! !! Options: !! : Average Pressure !! !! Behavior: !! !! References: !! !! @author Nathan A. Wukie !! @date 2/8/2018 !! !--------------------------------------------------------------------------------- type, public, extends(giles_HB_base_t) :: turbo_interface_steady_t contains procedure :: init ! Set-up bc state with options/name etc. procedure :: compute_bc_state ! boundary condition function implementation procedure :: compute_absorbing_interface procedure :: apply_nonreflecting_condition end type turbo_interface_steady_t !******************************************************************************* contains !> !! !! @author Nathan A. average_pressure !! @date 2/8/2017 !! !-------------------------------------------------------------------------------- subroutine init(self) class(turbo_interface_steady_t), intent(inout) :: self ! Set name, family call self%set_name('Steady Turbo Interface') call self%set_family('Inlet') ! Add functions call self%bcproperties%add('Pitch A', 'Required') call self%bcproperties%add('Pitch B', 'Required') end subroutine init !****************************************************************************** !> !! !! @author Nathan A. Wukie !! @date 2/8/2018 !! !! @param[in] worker Interface for geometry, cache, integration, etc. !! @param[inout] prop properties_t object containing equations and material_t objects !! !------------------------------------------------------------------------------------------- subroutine compute_bc_state(self,worker,prop,bc_comm) class(turbo_interface_steady_t), intent(inout) :: self type(chidg_worker_t), intent(inout) :: worker class(properties_t), intent(inout) :: prop type(mpi_comm), intent(in) :: bc_comm ! Storage at quadrature nodes type(AD_D), allocatable, dimension(:) :: & density_bc, mom1_bc, mom2_bc, mom3_bc, energy_bc, pressure_bc, vel1_bc, vel2_bc, vel3_bc, & grad1_density_m, grad1_mom1_m, grad1_mom2_m, grad1_mom3_m, grad1_energy_m, & grad2_density_m, grad2_mom1_m, grad2_mom2_m, grad2_mom3_m, grad2_energy_m, & grad3_density_m, grad3_mom1_m, grad3_mom2_m, grad3_mom3_m, grad3_energy_m type(AD_D), allocatable, dimension(:,:) :: & density_check_real_gq, vel1_check_real_gq, vel2_check_real_gq, vel3_check_real_gq, pressure_check_real_gq, & density_check_imag_gq, vel1_check_imag_gq, vel2_check_imag_gq, vel3_check_imag_gq, pressure_check_imag_gq type(AD_D), allocatable, dimension(:,:,:) :: & density_check_real_m, vel1_check_real_m, vel2_check_real_m, vel3_check_real_m, pressure_check_real_m, c_check_real_m, & density_check_imag_m, vel1_check_imag_m, vel2_check_imag_m, vel3_check_imag_m, pressure_check_imag_m, c_check_imag_m, & density_hat_real_m, vel1_hat_real_m, vel2_hat_real_m, vel3_hat_real_m, pressure_hat_real_m, c_hat_real_m, & density_hat_imag_m, vel1_hat_imag_m, vel2_hat_imag_m, vel3_hat_imag_m, pressure_hat_imag_m, c_hat_imag_m, & density_check_real_p, vel1_check_real_p, vel2_check_real_p, vel3_check_real_p, pressure_check_real_p, c_check_real_p, & density_check_imag_p, vel1_check_imag_p, vel2_check_imag_p, vel3_check_imag_p, pressure_check_imag_p, c_check_imag_p, & density_hat_real_p, vel1_hat_real_p, vel2_hat_real_p, vel3_hat_real_p, pressure_hat_real_p, c_hat_real_p, & density_hat_imag_p, vel1_hat_imag_p, vel2_hat_imag_p, vel3_hat_imag_p, pressure_hat_imag_p, c_hat_imag_p, & density_hat_real_abs, vel1_hat_real_abs, vel2_hat_real_abs, vel3_hat_real_abs, pressure_hat_real_abs, & density_hat_imag_abs, vel1_hat_imag_abs, vel2_hat_imag_abs, vel3_hat_imag_abs, pressure_hat_imag_abs, & density_hat_real_gq, vel1_hat_real_gq, vel2_hat_real_gq, vel3_hat_real_gq, pressure_hat_real_gq, & density_hat_imag_gq, vel1_hat_imag_gq, vel2_hat_imag_gq, vel3_hat_imag_gq, pressure_hat_imag_gq, & density_grid_m, vel1_grid_m, vel2_grid_m, vel3_grid_m, pressure_grid_m, c_grid_m, & density_grid_p, vel1_grid_p, vel2_grid_p, vel3_grid_p, pressure_grid_p, c_grid_p type(AD_D), allocatable, dimension(:) :: r character(1) :: side ! Interpolate interior solution to face quadrature nodes grad1_density_m = worker%get_field('Density' , 'grad1', 'face interior') grad2_density_m = worker%get_field('Density' , 'grad2', 'face interior') grad3_density_m = worker%get_field('Density' , 'grad3', 'face interior') grad1_mom1_m = worker%get_field('Momentum-1', 'grad1', 'face interior') grad2_mom1_m = worker%get_field('Momentum-1', 'grad2', 'face interior') grad3_mom1_m = worker%get_field('Momentum-1', 'grad3', 'face interior') grad1_mom2_m = worker%get_field('Momentum-2', 'grad1', 'face interior') grad2_mom2_m = worker%get_field('Momentum-2', 'grad2', 'face interior') grad3_mom2_m = worker%get_field('Momentum-2', 'grad3', 'face interior') grad1_mom3_m = worker%get_field('Momentum-3', 'grad1', 'face interior') grad2_mom3_m = worker%get_field('Momentum-3', 'grad2', 'face interior') grad3_mom3_m = worker%get_field('Momentum-3', 'grad3', 'face interior') grad1_energy_m = worker%get_field('Energy' , 'grad1', 'face interior') grad2_energy_m = worker%get_field('Energy' , 'grad2', 'face interior') grad3_energy_m = worker%get_field('Energy' , 'grad3', 'face interior') ! Store boundary gradient state. Grad(Q_bc). Do this here, before we ! compute any transformations for cylindrical. call worker%store_bc_state('Density' , grad1_density_m, 'grad1') call worker%store_bc_state('Density' , grad2_density_m, 'grad2') call worker%store_bc_state('Density' , grad3_density_m, 'grad3') call worker%store_bc_state('Momentum-1', grad1_mom1_m, 'grad1') call worker%store_bc_state('Momentum-1', grad2_mom1_m, 'grad2') call worker%store_bc_state('Momentum-1', grad3_mom1_m, 'grad3') call worker%store_bc_state('Momentum-2', grad1_mom2_m, 'grad1') call worker%store_bc_state('Momentum-2', grad2_mom2_m, 'grad2') call worker%store_bc_state('Momentum-2', grad3_mom2_m, 'grad3') call worker%store_bc_state('Momentum-3', grad1_mom3_m, 'grad1') call worker%store_bc_state('Momentum-3', grad2_mom3_m, 'grad2') call worker%store_bc_state('Momentum-3', grad3_mom3_m, 'grad3') call worker%store_bc_state('Energy' , grad1_energy_m, 'grad1') call worker%store_bc_state('Energy' , grad2_energy_m, 'grad2') call worker%store_bc_state('Energy' , grad3_energy_m, 'grad3') ! Get primitive variables at (radius,theta,time) grid. call self%get_q_side(worker,bc_comm,'A', & density_grid_m, & vel1_grid_m, & vel2_grid_m, & vel3_grid_m, & pressure_grid_m) c_grid_m = sqrt(gampressure_grid_m/density_grid_m) ! Compute Fourier decomposition of temporal data at points ! on the spatial transform grid. ! q_check(r,theta,omega) = DFT(q)[time] call self%compute_temporal_dft(worker,bc_comm, & density_grid_m, & vel1_grid_m, & vel2_grid_m, & vel3_grid_m, & pressure_grid_m, & c_grid_m, & density_check_real_m, density_check_imag_m, & vel1_check_real_m, vel1_check_imag_m, & vel2_check_real_m, vel2_check_imag_m, & vel3_check_real_m, vel3_check_imag_m, & pressure_check_real_m, pressure_check_imag_m, & c_check_real_m, c_check_imag_m) ! Compute Fourier decomposition in theta at set of radial ! stations for each temporal mode: ! q_hat(r,m,omega) = DFT(q_check)[theta] call self%compute_spatial_dft(worker,bc_comm,'A', & density_check_real_m, density_check_imag_m, & vel1_check_real_m, vel1_check_imag_m, & vel2_check_real_m, vel2_check_imag_m, & vel3_check_real_m, vel3_check_imag_m, & pressure_check_real_m, pressure_check_imag_m, & c_check_real_m, c_check_imag_m, & density_hat_real_m, density_hat_imag_m, & vel1_hat_real_m, vel1_hat_imag_m, & vel2_hat_real_m, vel2_hat_imag_m, & vel3_hat_real_m, vel3_hat_imag_m, & pressure_hat_real_m, pressure_hat_imag_m, & c_hat_real_m, c_hat_imag_m) ! Get exterior perturbation call self%get_q_side(worker,bc_comm,'B', & density_grid_p, & vel1_grid_p, & vel2_grid_p, & vel3_grid_p, & pressure_grid_p) c_grid_p = sqrt(gampressure_grid_p/density_grid_p) ! Compute Fourier decomposition of temporal data at points ! on the spatial transform grid. ! q_check(r,theta,omega) = DFT(q)[time] call self%compute_temporal_dft(worker,bc_comm, & density_grid_p, & vel1_grid_p, & vel2_grid_p, & vel3_grid_p, & pressure_grid_p, & c_grid_p, & density_check_real_p, density_check_imag_p, & vel1_check_real_p, vel1_check_imag_p, & vel2_check_real_p, vel2_check_imag_p, & vel3_check_real_p, vel3_check_imag_p, & pressure_check_real_p, pressure_check_imag_p, & c_check_real_p, c_check_imag_p) ! Compute Fourier decomposition in theta at set of radial ! stations for each temporal mode: ! q_hat(r,m,omega) = DFT(q_check)[theta] call self%compute_spatial_dft(worker,bc_comm,'B', & density_check_real_p, density_check_imag_p, & vel1_check_real_p, vel1_check_imag_p, & vel2_check_real_p, vel2_check_imag_p, & vel3_check_real_p, vel3_check_imag_p, & pressure_check_real_p, pressure_check_imag_p, & c_check_real_p, c_check_imag_p, & density_hat_real_p, density_hat_imag_p, & vel1_hat_real_p, vel1_hat_imag_p, & vel2_hat_real_p, vel2_hat_imag_p, & vel3_hat_real_p, vel3_hat_imag_p, & pressure_hat_real_p, pressure_hat_imag_p, & c_hat_real_p, c_hat_imag_p) ! Compute q_abs = f(q_p,q_m) side = self%get_face_side(worker) call self%compute_absorbing_interface(worker,bc_comm,side, & density_hat_real_m, density_hat_imag_m, & vel1_hat_real_m, vel1_hat_imag_m, & vel2_hat_real_m, vel2_hat_imag_m, & vel3_hat_real_m, vel3_hat_imag_m, & pressure_hat_real_m, pressure_hat_imag_m, & c_hat_real_m, c_hat_imag_m, & density_hat_real_p, density_hat_imag_p, & vel1_hat_real_p, vel1_hat_imag_p, & vel2_hat_real_p, vel2_hat_imag_p, & vel3_hat_real_p, vel3_hat_imag_p, & pressure_hat_real_p, pressure_hat_imag_p, & c_hat_real_p, c_hat_imag_p, & density_hat_real_abs, density_hat_imag_abs, & vel1_hat_real_abs, vel1_hat_imag_abs, & vel2_hat_real_abs, vel2_hat_imag_abs, & vel3_hat_real_abs, vel3_hat_imag_abs, & pressure_hat_real_abs, pressure_hat_imag_abs) ! q_abs(r_gq) = I(q_abs(r_aux)) call self%interpolate_raux_to_rgq(worker,bc_comm, & density_hat_real_abs, density_hat_imag_abs, & vel1_hat_real_abs, vel1_hat_imag_abs, & vel2_hat_real_abs, vel2_hat_imag_abs, & vel3_hat_real_abs, vel3_hat_imag_abs, & pressure_hat_real_abs, pressure_hat_imag_abs, & density_hat_real_gq, density_hat_imag_gq, & vel1_hat_real_gq, vel1_hat_imag_gq, & vel2_hat_real_gq, vel2_hat_imag_gq, & vel3_hat_real_gq, vel3_hat_imag_gq, & pressure_hat_real_gq, pressure_hat_imag_gq) ! Reconstruct primitive variables at quadrature nodes from absorbing Fourier modes ! via inverse transform. ! q_check(rgq,theta,omega) = IDFT(q_hat)[m] call self%compute_spatial_idft_gq(worker,bc_comm,side, & density_hat_real_gq, density_hat_imag_gq, & vel1_hat_real_gq, vel1_hat_imag_gq, & vel2_hat_real_gq, vel2_hat_imag_gq, & vel3_hat_real_gq, vel3_hat_imag_gq, & pressure_hat_real_gq, pressure_hat_imag_gq, & density_check_real_gq, density_check_imag_gq, & vel1_check_real_gq, vel1_check_imag_gq, & vel2_check_real_gq, vel2_check_imag_gq, & vel3_check_real_gq, vel3_check_imag_gq, & pressure_check_real_gq, pressure_check_imag_gq) ! q(rgq,theta,t) = IDFT(q_check)[omega] call self%compute_temporal_idft_gq(worker,bc_comm, & density_check_real_gq, density_check_imag_gq, & vel1_check_real_gq, vel1_check_imag_gq, & vel2_check_real_gq, vel2_check_imag_gq, & vel3_check_real_gq, vel3_check_imag_gq, & pressure_check_real_gq, pressure_check_imag_gq, & density_bc, vel1_bc, vel2_bc, vel3_bc, pressure_bc) ! ! Form conserved variables ! density_bc = density_bc mom1_bc = density_bcvel1_bc mom2_bc = density_bcvel2_bc mom3_bc = density_bcvel3_bc energy_bc = pressure_bc/(gam - ONE) + HALF(mom1_bcmom1_bc + mom2_bcmom2_bc + mom3_bcmom3_bc)/density_bc ! ! Account for cylindrical. Convert tangential momentum back to angular momentum. ! if (worker%coordinate_system() == 'Cylindrical') then r = worker%coordinate('1','boundary') mom2_bc = mom2_bc r end if ! ! Store boundary condition state. q_bc ! call worker%store_bc_state('Density' , density_bc, 'value') call worker%store_bc_state('Momentum-1', mom1_bc, 'value') call worker%store_bc_state('Momentum-2', mom2_bc, 'value') call worker%store_bc_state('Momentum-3', mom3_bc, 'value') call worker%store_bc_state('Energy' , energy_bc, 'value') end subroutine compute_bc_state !********************************************************************************* !> DANIEL'S FORMULATION !! !! !! !! !-------------------------------------------------------------------------------- subroutine compute_absorbing_interface(self,worker,bc_comm,side, & density_real_m, density_imag_m, & vel1_real_m, vel1_imag_m, & vel2_real_m, vel2_imag_m, & vel3_real_m, vel3_imag_m, & pressure_real_m, pressure_imag_m, & c_real_m, c_imag_m, & density_real_p, density_imag_p, & vel1_real_p, vel1_imag_p, & vel2_real_p, vel2_imag_p, & vel3_real_p, vel3_imag_p, & pressure_real_p, pressure_imag_p, & c_real_p, c_imag_p, & density_real_abs, density_imag_abs, & vel1_real_abs, vel1_imag_abs, & vel2_real_abs, vel2_imag_abs, & vel3_real_abs, vel3_imag_abs, & pressure_real_abs, pressure_imag_abs) class(turbo_interface_steady_t), intent(inout) :: self type(chidg_worker_t), intent(inout) :: worker type(mpi_comm), intent(in) :: bc_comm character(1), intent(in) :: side type(AD_D), intent(inout) :: density_real_m(:,:,:) type(AD_D), intent(inout) :: density_imag_m(:,:,:) type(AD_D), intent(inout) :: vel1_real_m(:,:,:) type(AD_D), intent(inout) :: vel1_imag_m(:,:,:) type(AD_D), intent(inout) :: vel2_real_m(:,:,:) type(AD_D), intent(inout) :: vel2_imag_m(:,:,:) type(AD_D), intent(inout) :: vel3_real_m(:,:,:) type(AD_D), intent(inout) :: vel3_imag_m(:,:,:) type(AD_D), intent(inout) :: pressure_real_m(:,:,:) type(AD_D), intent(inout) :: pressure_imag_m(:,:,:) type(AD_D), intent(inout) :: c_real_m(:,:,:) type(AD_D), intent(inout) :: c_imag_m(:,:,:) type(AD_D), intent(inout) :: density_real_p(:,:,:) type(AD_D), intent(inout) :: density_imag_p(:,:,:) type(AD_D), intent(inout) :: vel1_real_p(:,:,:) type(AD_D), intent(inout) :: vel1_imag_p(:,:,:) type(AD_D), intent(inout) :: vel2_real_p(:,:,:) type(AD_D), intent(inout) :: vel2_imag_p(:,:,:) type(AD_D), intent(inout) :: vel3_real_p(:,:,:) type(AD_D), intent(inout) :: vel3_imag_p(:,:,:) type(AD_D), intent(inout) :: pressure_real_p(:,:,:) type(AD_D), intent(inout) :: pressure_imag_p(:,:,:) type(AD_D), intent(inout) :: c_real_p(:,:,:) type(AD_D), intent(inout) :: c_imag_p(:,:,:) type(AD_D), allocatable, intent(inout) :: density_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: density_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel1_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel1_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel2_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel2_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel3_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel3_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: pressure_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: pressure_imag_abs(:,:,:) type(AD_D), allocatable, dimension(:,:,:) :: & a1_real, a2_real, a3_real, a4_real, a5_real, & a1_imag, a2_imag, a3_imag, a4_imag, a5_imag, & a1_real_m, a2_real_m, a3_real_m, a4_real_m, a5_real_m, & a1_imag_m, a2_imag_m, a3_imag_m, a4_imag_m, a5_imag_m, & a1_real_p, a2_real_p, a3_real_p, a4_real_p, a5_real_p, & a1_imag_p, a2_imag_p, a3_imag_p, a4_imag_p, a5_imag_p type(AD_D), allocatable, dimension(:) :: density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar real(rk), allocatable, dimension(:,:) :: unorm print, 'WARNING: Inconsistent use of Pitch A in eigenvalue calc' density_bar = (density_real_m(:,1,1) + density_real_p(:,1,1))/TWO vel1_bar = (vel1_real_m(:,1,1) + vel1_real_p(:,1,1))/TWO vel2_bar = (vel2_real_m(:,1,1) + vel2_real_p(:,1,1))/TWO vel3_bar = (vel3_real_m(:,1,1) + vel3_real_p(:,1,1))/TWO pressure_bar = (pressure_real_m(:,1,1) + pressure_real_p(:,1,1))/TWO c_bar = (c_real_m(:,1,1) + c_real_p(:,1,1))/TWO ! Project interior to eigenmodes call self%primitive_to_eigenmodes(worker,bc_comm,'A', & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & density_real_m, density_imag_m, & vel1_real_m, vel1_imag_m, & vel2_real_m, vel2_imag_m, & vel3_real_m, vel3_imag_m, & pressure_real_m, pressure_imag_m, & a1_real_m, a1_imag_m, & a2_real_m, a2_imag_m, & a3_real_m, a3_imag_m, & a4_real_m, a4_imag_m, & a5_real_m, a5_imag_m) ! Project exterior to eigenmodes call self%primitive_to_eigenmodes(worker,bc_comm,'B', & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & density_real_p, density_imag_p, & vel1_real_p, vel1_imag_p, & vel2_real_p, vel2_imag_p, & vel3_real_p, vel3_imag_p, & pressure_real_p, pressure_imag_p, & a1_real_p, a1_imag_p, & a2_real_p, a2_imag_p, & a3_real_p, a3_imag_p, & a4_real_p, a4_imag_p, & a5_real_p, a5_imag_p) ! Allocate and zero absorbing modes a1_real = ZEROa1_real_m a1_imag = ZEROa1_real_m a2_real = ZEROa1_real_m a2_imag = ZEROa1_real_m a3_real = ZEROa1_real_m a3_imag = ZEROa1_real_m a4_real = ZEROa1_real_m a4_imag = ZEROa1_real_m a5_real = ZEROa1_real_m a5_imag = ZEROa1_real_m call self%apply_nonreflecting_condition(worker,bc_comm,side, & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & a1_real_m, a1_imag_m, & a2_real_m, a2_imag_m, & a3_real_m, a3_imag_m, & a4_real_m, a4_imag_m, & a5_real_m, a5_imag_m, & a1_real_p, a1_imag_p, & a2_real_p, a2_imag_p, & a3_real_p, a3_imag_p, & a4_real_p, a4_imag_p, & a5_real_p, a5_imag_p, & a1_real, a1_imag, & a2_real, a2_imag, & a3_real, a3_imag, & a4_real, a4_imag, & a5_real, a5_imag) ! To initialize average and storage density_real_abs = density_real_m density_imag_abs = density_imag_m vel1_real_abs = vel1_real_m vel1_imag_abs = vel1_imag_m vel2_real_abs = vel2_real_m vel2_imag_abs = vel2_imag_m vel3_real_abs = vel3_real_m vel3_imag_abs = vel3_imag_m pressure_real_abs = pressure_real_m pressure_imag_abs = pressure_imag_m ! Convert back to primitive variables call self%eigenmodes_to_primitive(worker,bc_comm,side, & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & a1_real, a1_imag, & a2_real, a2_imag, & a3_real, a3_imag, & a4_real, a4_imag, & a5_real, a5_imag, & density_real_abs, density_imag_abs, & vel1_real_abs, vel1_imag_abs, & vel2_real_abs, vel2_imag_abs, & vel3_real_abs, vel3_imag_abs, & pressure_real_abs, pressure_imag_abs) ! Update space-time average as average of 'A' and 'B' density_real_abs(:,1,1) = (density_real_m(:,1,1) + density_real_p(:,1,1))/TWO vel1_real_abs(:,1,1) = (vel1_real_m(:,1,1) + vel1_real_p(:,1,1))/TWO vel2_real_abs(:,1,1) = (vel2_real_m(:,1,1) + vel2_real_p(:,1,1))/TWO vel3_real_abs(:,1,1) = (vel3_real_m(:,1,1) + vel3_real_p(:,1,1))/TWO pressure_real_abs(:,1,1) = (pressure_real_m(:,1,1) + pressure_real_p(:,1,1))/TWO ! Zero imaginary part density_imag_abs(:,1,1) = ZERO vel1_imag_abs(:,1,1) = ZERO vel2_imag_abs(:,1,1) = ZERO vel3_imag_abs(:,1,1) = ZERO pressure_imag_abs(:,1,1) = ZERO end subroutine compute_absorbing_interface !******************************************************************************* !> !! !! !! !----------------------------------------------------------------------------------- subroutine apply_nonreflecting_condition(self,worker,bc_comm,side, & density_bar_r, vel1_bar_r, vel2_bar_r, vel3_bar_r, pressure_bar_r, c_bar_r, & a1_real_m, a1_imag_m, & a2_real_m, a2_imag_m, & a3_real_m, a3_imag_m, & a4_real_m, a4_imag_m, & a5_real_m, a5_imag_m, & a1_real_p, a1_imag_p, & a2_real_p, a2_imag_p, & a3_real_p, a3_imag_p, & a4_real_p, a4_imag_p, & a5_real_p, a5_imag_p, & a1_real, a1_imag, & a2_real, a2_imag, & a3_real, a3_imag, & a4_real, a4_imag, & a5_real, a5_imag) class(turbo_interface_steady_t), intent(inout) :: self type(chidg_worker_t), intent(inout) :: worker type(mpi_comm), intent(in) :: bc_comm character(1), intent(in) :: side type(AD_D), intent(in) :: density_bar_r(:) type(AD_D), intent(in) :: vel1_bar_r(:) type(AD_D), intent(in) :: vel2_bar_r(:) type(AD_D), intent(in) :: vel3_bar_r(:) type(AD_D), intent(in) :: pressure_bar_r(:) type(AD_D), intent(in) :: c_bar_r(:) type(AD_D), intent(inout) :: a1_real_m(:,:,:) type(AD_D), intent(inout) :: a1_imag_m(:,:,:) type(AD_D), intent(inout) :: a2_real_m(:,:,:) type(AD_D), intent(inout) :: a2_imag_m(:,:,:) type(AD_D), intent(inout) :: a3_real_m(:,:,:) type(AD_D), intent(inout) :: a3_imag_m(:,:,:) type(AD_D), intent(inout) :: a4_real_m(:,:,:) type(AD_D), intent(inout) :: a4_imag_m(:,:,:) type(AD_D), intent(inout) :: a5_real_m(:,:,:) type(AD_D), intent(inout) :: a5_imag_m(:,:,:) type(AD_D), intent(inout) :: a1_real_p(:,:,:) type(AD_D), intent(inout) :: a1_imag_p(:,:,:) type(AD_D), intent(inout) :: a2_real_p(:,:,:) type(AD_D), intent(inout) :: a2_imag_p(:,:,:) type(AD_D), intent(inout) :: a3_real_p(:,:,:) type(AD_D), intent(inout) :: a3_imag_p(:,:,:) type(AD_D), intent(inout) :: a4_real_p(:,:,:) type(AD_D), intent(inout) :: a4_imag_p(:,:,:) type(AD_D), intent(inout) :: a5_real_p(:,:,:) type(AD_D), intent(inout) :: a5_imag_p(:,:,:) type(AD_D), allocatable, intent(inout) :: a1_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a1_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a2_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a2_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a3_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a3_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a4_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a4_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a5_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a5_imag(:,:,:) integer(ik) :: iradius, itheta, ntheta, itime type(AD_D) :: beta, B3_real, B3_imag, B4_real, B4_imag, & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar ! NOTE the amplitude strategy here is for 1d characteristics. The unsteady amplitudes ! have diffferent propagation directions so the logic will be different. if (side=='A') then ! Extrapolate amplitudes from upstream a1_real = a1_real_m a1_imag = a1_imag_m a2_real = a2_real_m a2_imag = a2_imag_m a3_real = a3_real_m a3_imag = a3_imag_m a4_real = a4_real_m a4_imag = a4_imag_m ! Zero amplitudes from downstream a5_real = ZEROa5_real_p a5_imag = ZEROa5_imag_p ! ! Adjust steady modes based on Giles' original steady formulation. ! itime = 1 ! Time-constant ! do iradius = 1,size(a1_real_m,1) ! ! Get average parts ! density_bar = density_bar_r(iradius) ! vel1_bar = vel1_bar_r(iradius) ! vel2_bar = vel2_bar_r(iradius) ! vel3_bar = vel3_bar_r(iradius) ! pressure_bar = pressure_bar_r(iradius) ! c_bar = sqrt(gampressure_bar/density_bar) ! ! ! starting with 2 here because the first mode is treated with 1D characteristics ! ntheta = size(a1_real_m,2) ! do itheta = 2,ntheta ! ! Account for sign(mode) in the calculation of beta. The second half of the ! ! modes are negative frequencies. ! if (itheta <= (ntheta-1)/2 + 1) then ! beta = sqrt(c_barc_bar - (vel3_barvel3_bar + vel2_barvel2_bar)) ! else if (itheta > (ntheta-1)/2 + 1) then ! beta = -sqrt(c_barc_bar - (vel3_barvel3_bar + vel2_barvel2_bar)) ! end if ! ! ! The imaginary part of beta has already been accounted for in ! ! the expressions for B2 and B3 ! B3_real = -TWOvel3_barvel2_bar/(vel2_barvel2_bar + betabeta) ! B3_imag = -TWObetavel3_bar/(vel2_barvel2_bar + betabeta) ! ! B4_real = (betabeta - vel2_barvel2_bar)/(betabeta + vel2_barvel2_bar) ! B4_imag = -TWObetavel2_bar/(betabeta + vel2_barvel2_bar) ! ! a5_real(iradius,itheta,itime) = (B3_reala3_real_m(iradius,itheta,itime) - B3_imaga3_imag_m(iradius,itheta,itime)) & ! A3c3 (real) ! - (B4_reala4_real_m(iradius,itheta,itime) - B4_imaga4_imag_m(iradius,itheta,itime)) ! A4c4 (real) ! a5_imag(iradius,itheta,itime) = (B3_imaga3_real_m(iradius,itheta,itime) + B3_reala3_imag_m(iradius,itheta,itime)) & ! A3c3 (imag) ! - (B4_imaga4_real_m(iradius,itheta,itime) + B4_reala4_imag_m(iradius,itheta,itime)) ! A4c4 (imag) ! end do !itheta ! end do !iradius else if (side=='B') then ! Zero amplitudes from upsteady ! a1_real(:,:,1) = ZERO ! a1_imag(:,:,1) = ZERO ! a2_real(:,:,1) = ZERO ! a2_imag(:,:,1) = ZERO ! a3_real(:,:,1) = ZERO ! a3_imag(:,:,1) = ZERO ! a4_real(:,:,1) = ZERO ! a4_imag(:,:,1) = ZERO ! ! a5_real(:,:,1) = a5_real_p(:,:,1) ! a5_imag(:,:,1) = a5_imag_p(:,:,1) ! Zero incoming amplitudes a1_real = ZERO a1_imag = ZERO a2_real = ZERO a2_imag = ZERO a3_real = ZERO a3_imag = ZERO a5_real = ZERO a5_imag = ZERO ! Extrapolate outgoing amplitudes a4_real = a4_real_p a4_imag = a4_imag_p ! itime = 1 ! Time-constant ! do iradius = 1,size(a1_real_m,1) ! ! Get average parts ! density_bar = density_bar_r(iradius) ! vel1_bar = vel1_bar_r(iradius) ! vel2_bar = vel2_bar_r(iradius) ! vel3_bar = vel3_bar_r(iradius) ! pressure_bar = pressure_bar_r(iradius) ! c_bar = sqrt(gampressure_bar/density_bar) ! ! ! starting with 2 here because the first mode is treated with 1D characteristics ! ntheta = size(a1_real_m,2) ! do itheta = 2,ntheta ! ! Account for sign(mode) in the calculation of beta. The second half of the ! ! modes are negative frequencies. ! if (itheta <= (ntheta-1)/2 + 1) then ! beta = sqrt(c_barc_bar - (vel3_barvel3_bar + vel2_barvel2_bar)) ! else if (itheta > (ntheta-1)/2 + 1) then ! beta = -sqrt(c_barc_bar - (vel3_barvel3_bar + vel2_barvel2_bar)) ! end if ! ! ! B3_real = -vel2_bar/(c_bar + vel3_bar) ! B3_imag = -beta/(c_bar + vel3_bar) ! ! B4_real = (vel2_barvel2_bar - betabeta)/((c_bar + vel3_bar)*TWO) ! B4_imag = TWOvel2_barbeta/((c_bar + vel3_bar)TWO) ! ! ! a1_real(iradius,itheta,itime) = ZERO ! a1_imag(iradius,itheta,itime) = ZERO ! a2_real(iradius,itheta,itime) = ZERO ! a2_imag(iradius,itheta,itime) = ZERO ! ! a3_real(iradius,itheta,itime) = (B3_reala5_real_p(iradius,itheta,itime) - B3_imaga5_imag_p(iradius,itheta,itime)) ! a3_imag(iradius,itheta,itime) = (B3_imaga5_real_p(iradius,itheta,itime) + B3_reala5_imag_p(iradius,itheta,itime)) ! ! a4_real(iradius,itheta,itime) = (B4_reala5_real_p(iradius,itheta,itime) - B4_imaga5_imag_p(iradius,itheta,itime)) ! a4_imag(iradius,itheta,itime) = (B4_imaga5_real_p(iradius,itheta,itime) + B4_reala5_imag_p(iradius,itheta,itime)) ! ! end do !itheta ! end do !iradius else call chidg_signal(FATAL,"turbo_interface_steady%apply_nonreflecting_condition: invalid input for argument 'side': 'A' or 'B'") end if end subroutine apply_nonreflecting_condition !******************************************************************************* end module bc_state_turbo_interface_steady	src/equations/fluid/bc/nonlocal/bc_state_turbo_interface_steady.f90
DECK BQR SUBROUTINE BQR (NM, N, MB, A, T, R, IERR, NV, RV) CBEGIN PROLOGUE BQR CPURPOSE Compute some of the eigenvalues of a real symmetric C matrix using the QR method with shifts of origin. CLIBRARY SLATEC (EISPACK) CCATEGORY D4A6 CTYPE SINGLE PRECISION (BQR-S) CKEYWORDS EIGENVALUES, EISPACK CAUTHOR Smith, B. T., et al. CDESCRIPTION C C This subroutine is a translation of the ALGOL procedure BQR, C NUM. MATH. 16, 85-92(1970) by Martin, Reinsch, and Wilkinson. C HANDBOOK FOR AUTO. COMP., VOL II-LINEAR ALGEBRA, 266-272(1971). C C This subroutine finds the eigenvalue of smallest (usually) C magnitude of a REAL SYMMETRIC BAND matrix using the C QR algorithm with shifts of origin. Consecutive calls C can be made to find further eigenvalues. C C On INPUT C C NM must be set to the row dimension of the two-dimensional C array parameter, A, as declared in the calling program C dimension statement. NM is an INTEGER variable. C C N is the order of the matrix A. N is an INTEGER variable. C N must be less than or equal to NM. C C MB is the (half) band width of the matrix, defined as the C number of adjacent diagonals, including the principal C diagonal, required to specify the non-zero portion of the C lower triangle of the matrix. MB is an INTEGER variable. C MB must be less than or equal to N on first call. C C A contains the lower triangle of the symmetric band input C matrix stored as an N by MB array. Its lowest subdiagonal C is stored in the last N+1-MB positions of the first column, C its next subdiagonal in the last N+2-MB positions of the C second column, further subdiagonals similarly, and finally C its principal diagonal in the N positions of the last column. C Contents of storages not part of the matrix are arbitrary. C On a subsequent call, its output contents from the previous C call should be passed. A is a two-dimensional REAL array, C dimensioned A(NM,MB). C C T specifies the shift (of eigenvalues) applied to the diagonal C of A in forming the input matrix. What is actually determined C is the eigenvalue of A+TI (I is the identity matrix) nearest C to T. On a subsequent call, the output value of T from the C previous call should be passed if the next nearest eigenvalue C is sought. T is a REAL variable. C C R should be specified as zero on the first call, and as its C output value from the previous call on a subsequent call. C It is used to determine when the last row and column of C the transformed band matrix can be regarded as negligible. C R is a REAL variable. C C NV must be set to the dimension of the array parameter RV C as declared in the calling program dimension statement. C NV is an INTEGER variable. C C On OUTPUT C C A contains the transformed band matrix. The matrix A+TI C derived from the output parameters is similar to the C input A+TI to within rounding errors. Its last row and C column are null (if IERR is zero). C C T contains the computed eigenvalue of A+TI (if IERR is zero), C where I is the identity matrix. C C R contains the maximum of its input value and the norm of the C last column of the input matrix A. C C IERR is an INTEGER flag set to C Zero for normal return, C J if the J-th eigenvalue has not been C determined after a total of 30 iterations. C C RV is a one-dimensional REAL array of dimension NV which is C at least (2MB*2+4MB-3), used for temporary storage. The C first (3MB-2) locations correspond to the ALGOL array B, C the next (2MB-1) locations correspond to the ALGOL array H, C and the final (2MB2-MB) locations correspond to the MB C by (2MB-1) ALGOL array U. C C NOTE. For a subsequent call, N should be replaced by N-1, but C MB should not be altered even when it exceeds the current N. C C Calls PYTHAG(A,B) for SQRT(A2 + B2). C C Questions and comments should be directed to B. S. Garbow, C Applied Mathematics Division, ARGONNE NATIONAL LABORATORY C ------------------------------------------------------------------ C C*REFERENCES B. T. Smith, J. M. Boyle, J. J. Dongarra, B. S. Garbow, C Y. Ikebe, V. C. Klema and C. B. Moler, Matrix Eigen- C system Routines - EISPACK Guide, Springer-Verlag, C 1976. CROUTINES CALLED PYTHAG CREVISION HISTORY (YYMMDD) C 760101 DATE WRITTEN C 890531 Changed all specific intrinsics to generic. (WRB) C 890831 Modified array declarations. (WRB) C 890831 REVISION DATE from Version 3.2 C 891214 Prologue converted to Version 4.0 format. (BAB) C 920501 Reformatted the REFERENCES section. (WRB) CEND PROLOGUE BQR C INTEGER I,J,K,L,M,N,II,IK,JK,JM,KJ,KK,KM,LL,MB,MK,MN,MZ INTEGER M1,M2,M3,M4,NI,NM,NV,ITS,KJ1,M21,M31,IERR,IMULT REAL A(NM,),RV() REAL F,G,Q,R,S,T,SCALE REAL PYTHAG C C*FIRST EXECUTABLE STATEMENT BQR IERR = 0 M1 = MIN(MB,N) M = M1 - 1 M2 = M + M M21 = M2 + 1 M3 = M21 + M M31 = M3 + 1 M4 = M31 + M2 MN = M + N MZ = MB - M1 ITS = 0 C .......... TEST FOR CONVERGENCE .......... 40 G = A(N,MB) IF (M .EQ. 0) GO TO 360 F = 0.0E0 C DO 50 K = 1, M MK = K + MZ F = F + ABS(A(N,MK)) 50 CONTINUE C IF (ITS .EQ. 0 .AND. F .GT. R) R = F IF (R + F .LE. R) GO TO 360 IF (ITS .EQ. 30) GO TO 1000 ITS = ITS + 1 C .......... FORM SHIFT FROM BOTTOM 2 BY 2 MINOR .......... IF (F .GT. 0.25E0 R .AND. ITS .LT. 5) GO TO 90 F = A(N,MB-1) IF (F .EQ. 0.0E0) GO TO 70 Q = (A(N-1,MB) - G) / (2.0E0 * F) S = PYTHAG(Q,1.0E0) G = G - F / (Q + SIGN(S,Q)) 70 T = T + G C DO 80 I = 1, N 80 A(I,MB) = A(I,MB) - G C 90 DO 100 K = M31, M4 100 RV(K) = 0.0E0 C DO 350 II = 1, MN I = II - M NI = N - II IF (NI .LT. 0) GO TO 230 C .......... FORM COLUMN OF SHIFTED MATRIX A-GI .......... L = MAX(1,2-I) C DO 110 K = 1, M3 110 RV(K) = 0.0E0 C DO 120 K = L, M1 KM = K + M MK = K + MZ RV(KM) = A(II,MK) 120 CONTINUE C LL = MIN(M,NI) IF (LL .EQ. 0) GO TO 135 C DO 130 K = 1, LL KM = K + M21 IK = II + K MK = MB - K RV(KM) = A(IK,MK) 130 CONTINUE C .......... PRE-MULTIPLY WITH HOUSEHOLDER REFLECTIONS .......... 135 LL = M2 IMULT = 0 C .......... MULTIPLICATION PROCEDURE .......... 140 KJ = M4 - M1 C DO 170 J = 1, LL KJ = KJ + M1 JM = J + M3 IF (RV(JM) .EQ. 0.0E0) GO TO 170 F = 0.0E0 C DO 150 K = 1, M1 KJ = KJ + 1 JK = J + K - 1 F = F + RV(KJ) RV(JK) 150 CONTINUE C F = F / RV(JM) KJ = KJ - M1 C DO 160 K = 1, M1 KJ = KJ + 1 JK = J + K - 1 RV(JK) = RV(JK) - RV(KJ) * F 160 CONTINUE C KJ = KJ - M1 170 CONTINUE C IF (IMULT .NE. 0) GO TO 280 C .......... HOUSEHOLDER REFLECTION .......... F = RV(M21) S = 0.0E0 RV(M4) = 0.0E0 SCALE = 0.0E0 C DO 180 K = M21, M3 180 SCALE = SCALE + ABS(RV(K)) C IF (SCALE .EQ. 0.0E0) GO TO 210 C DO 190 K = M21, M3 190 S = S + (RV(K)/SCALE)*2 C S = SCALE SCALE * S G = -SIGN(SQRT(S),F) RV(M21) = G RV(M4) = S - F * G KJ = M4 + M2 * M1 + 1 RV(KJ) = F - G C DO 200 K = 2, M1 KJ = KJ + 1 KM = K + M2 RV(KJ) = RV(KM) 200 CONTINUE C .......... SAVE COLUMN OF TRIANGULAR FACTOR R .......... 210 DO 220 K = L, M1 KM = K + M MK = K + MZ A(II,MK) = RV(KM) 220 CONTINUE C 230 L = MAX(1,M1+1-I) IF (I .LE. 0) GO TO 300 C .......... PERFORM ADDITIONAL STEPS .......... DO 240 K = 1, M21 240 RV(K) = 0.0E0 C LL = MIN(M1,NI+M1) C .......... GET ROW OF TRIANGULAR FACTOR R .......... DO 250 KK = 1, LL K = KK - 1 KM = K + M1 IK = I + K MK = MB - K RV(KM) = A(IK,MK) 250 CONTINUE C .......... POST-MULTIPLY WITH HOUSEHOLDER REFLECTIONS .......... LL = M1 IMULT = 1 GO TO 140 C .......... STORE COLUMN OF NEW A MATRIX .......... 280 DO 290 K = L, M1 MK = K + MZ A(I,MK) = RV(K) 290 CONTINUE C .......... UPDATE HOUSEHOLDER REFLECTIONS .......... 300 IF (L .GT. 1) L = L - 1 KJ1 = M4 + L * M1 C DO 320 J = L, M2 JM = J + M3 RV(JM) = RV(JM+1) C DO 320 K = 1, M1 KJ1 = KJ1 + 1 KJ = KJ1 - M1 RV(KJ) = RV(KJ1) 320 CONTINUE C 350 CONTINUE C GO TO 40 C .......... CONVERGENCE .......... 360 T = T + G C DO 380 I = 1, N 380 A(I,MB) = A(I,MB) - G C DO 400 K = 1, M1 MK = K + MZ A(N,MK) = 0.0E0 400 CONTINUE C GO TO 1001 C .......... SET ERROR -- NO CONVERGENCE TO C EIGENVALUE AFTER 30 ITERATIONS .......... 1000 IERR = N 1001 RETURN END	slatec/src/bqr.f
!==============================================================================! subroutine Turb_Mod_Vis_T_Rsm(turb) !------------------------------------------------------------------------------! ! Computes the turbulent viscosity for RSM models ('EBM' and 'HJ'). ! ! If hybrid option is used turbulent diffusivity is modeled by vis_t. ! ! Otherwise, vis_t is used as false diffusion in order to increase ! ! stability of computation. ! !------------------------------------------------------------------------------! implicit none !---------------------------------[Arguments]----------------------------------! type(Turb_Type), target :: turb !-----------------------------------[Locals]-----------------------------------! type(Field_Type), pointer :: flow type(Grid_Type), pointer :: grid type(Var_Type), pointer :: u, v, w type(Var_Type), pointer :: kin, eps type(Var_Type), pointer :: uu, vv, ww, uv, uw, vw integer :: c real :: cmu_mod !==============================================================================! ! Dimensions: ! ! ! ! production p_kin [m^2/s^3] \| rate-of-strain shear [1/s] ! ! dissipation eps % n [m^2/s^3] \| turb. visc. vis_t [kg/(ms)] ! ! wall shear s. tau_wall [kg/(ms^2)]\| dyn visc. viscosity [kg/(ms)] ! ! density density [kg/m^3] \| turb. kin en. kin % n [m^2/s^2] ! ! cell volume vol [m^3] \| length lf [m] ! ! left hand s. A [kg/s] \| right hand s. b [kgm^2/s^3]! ! wall visc. vis_w [kg/(ms)] \| kinematic viscosity [m^2/s] ! ! thermal cap. capacity[m^2/(s^2K)]\| therm. conductivity [kgm/(s^3K)]! !------------------------------------------------------------------------------! ! Take aliases flow => turb % pnt_flow grid => flow % pnt_grid call Field_Mod_Alias_Momentum(flow, u, v, w) call Turb_Mod_Alias_K_Eps (turb, kin, eps) call Turb_Mod_Alias_Stresses (turb, uu, vv, ww, uv, uw, vw) call Calculate_Shear_And_Vorticity(flow) do c = 1, grid % n_cells kin % n(c) = 0.5max(uu % n(c) + vv % n(c) + ww % n(c), TINY) cmu_mod = max(-( uu % n(c) u % x(c) & + vv % n(c) * v % y(c) & + ww % n(c) * w % z(c) & + uv % n(c) * (v % x(c) + u % y(c)) & + uw % n(c) * (u % z(c) + w % x(c)) & + vw % n(c) * (v % z(c) + w % y(c))) & / (kin % n(c) * turb % t_scale(c) * flow % shear(c)*2 + TINY), 0.0) cmu_mod = min(0.12, cmu_mod) turb % vis_t(c) = cmu_mod flow % density(c) & * kin % n(c) * turb % t_scale(c) turb % vis_t(c) = max(turb % vis_t(c), TINY) end do call Grid_Mod_Exchange_Cells_Real(grid, turb % vis_t) end subroutine	Sources/Process/Turb_Mod/Vis_T_Rsm.f90
!> IMPACT !! \author Rolf Henniger, Institute of Fluid Dynamics, ETH Zurich ([email protected]) !! \date Mai 2005 - Dec 2011 !> \brief module providing functions to initiliaze and apply RestrictionOp module cmod_RestrictionOp use iso_c_binding use mpi implicit none contains subroutine MG_getCRVS( & iimax, & BC_L, & BC_U, & dd, & Nf, & bL, & bU, & xf, & cR ) bind( c, name='MG_getCRVS' ) implicit none integer(c_int), intent(in) :: iimax integer(c_int), intent(in) :: BC_L integer(c_int), intent(in) :: BC_U integer(c_int), intent(in) :: dd integer(c_int), intent(in) :: Nf integer(c_int), intent(in) :: bL, bU real(c_double), intent(in) :: xf( bL:(Nf+bU) ) real(c_double), intent(out) :: cR(-1:1,1:iimax) real(c_double) :: h(1:2) integer(c_int) :: i, ii cR = 0. !==================================================================================== !=== Restriktion, linienweise, 1d =================================================== !==================================================================================== do i = 1, iimax if( 1==dd ) then cR(-1,i) = 0. cR( 0,i) = 1. cR( 1,i) = 0. else ii = dd(i-1)+1 h( 1 ) = xf(ii ) - xf(ii-1) h( 2 ) = xf(ii+1) - xf(ii ) cR(-1,i) = h(2)/( h(1) + h(2) )/2. ! 1./4. for equi cR( 0,i) = 1./2. cR( 1,i) = h(1)/( h(1) + h(2) )/2. ! 1./4/ for equi end if end do if( BC_L > 0 ) then cR(-1,1) = 0. cR( 0,1) = 1. cR( 1,1) = 0. end if if (BC_L == -2) then cR( 1,1) = cR( 1,1) + cR(-1,1) cR(-1,1) = 0. end if if (BC_U > 0) then cR(-1,iimax) = 0. cR( 0,iimax) = 1. cR( 1,iimax) = 0. end if if (BC_U == -2) then cR(-1,iimax) = cR( 1,iimax) + cR(-1,iimax) cR( 1,iimax) = 0. end if end subroutine MG_getCRVS subroutine MG_getCRS( & iimax, & BC_L, & BC_U, & dd, & Nf, & bL, & bU, & xf, & cR ) bind( c, name='MG_getCRS' ) implicit none integer(c_int), intent(in) :: iimax integer(c_int), intent(in) :: BC_L integer(c_int), intent(in) :: BC_U integer(c_int), intent(in) :: dd integer(c_int), intent(in) :: Nf integer(c_int), intent(in) :: bL, bU real(c_double), intent(in) :: xf( bL:(Nf+bU) ) real(c_double), intent(out) :: cR(-1:1,1:iimax) real(c_double) :: h(1:2) integer(c_int) :: i, ii cR = 0. !==================================================================================== !=== Restriktion, linienweise, 1d =================================================== !==================================================================================== do i = 1, iimax if( 1==dd ) then cR(-1,i) = 0. cR( 0,i) = 1. cR( 1,i) = 0. else ii = dd(i-1)+1 h( 1 ) = xf(ii ) - xf(ii-1) h( 2 ) = xf(ii+1) - xf(ii ) cR(-1,i) = h(2)/( h(1) + h(2) )/2. ! 1./4. for equi cR( 0,i) = 1./2. cR( 1,i) = h(1)/( h(1) + h(2) )/2. ! 1./4/ for equi end if end do if( BC_L > 0 ) then !cR( 1,1) = cR(1,1) + cR(-1,1) ! equivalent to 0.5 0.5 cR(-1,1) = 0. cR( 0,1) = 0.5 cR( 1,1) = 0.5 end if if (BC_L == -2) then cR( 1,1) = cR( 1,1) + cR(-1,1) cR(-1,1) = 0. end if if (BC_U > 0) then cR(-1,iimax) = 0.5 cR( 0,iimax) = 0.5 cR( 1,iimax) = 0. end if if (BC_U == -2) then cR(-1,iimax) = cR( 1,iimax) + cR(-1,iimax) cR( 1,iimax) = 0. end if !! this has proven very good for generated rhs + random init !! for testing if( BC_L > 0 ) then cR(-1,1) = 0. cR( 0,1) = 1. cR( 1,1) = 0. end if if (BC_L == -2) then cR( 1,1) = cR( 1,1) + cR(-1,1) cR(-1,1) = 0. end if if (BC_U > 0) then cR(-1,iimax) = 0. cR( 0,iimax) = 1. cR( 1,iimax) = 0. end if if (BC_U == -2) then cR(-1,iimax) = cR( 1,iimax) + cR(-1,iimax) cR( 1,iimax) = 0. end if end subroutine MG_getCRS !> \brief ugly corner handling !! \deprecated subroutine MG_RestrictCorners( & Nc, & bLc,bUc, & BCL, BCU, & phif ) bind( c, name='MG_RestrictCorners' ) implicit none integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: BCL(3) integer(c_int), intent(in) :: BCU(3) real(c_double), intent(inout) :: phif (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) !if (BC(1,1,g) > 0 .and. BC(1,2,g) > 0) fine1( 1 , 1 ,1:NN(3,g)) = (fine1(2 ,1 ,1:NN(3,g)) + fine1(1 ,2 ,1:NN(3,g)))/2. !if (BC(1,1,g) > 0 .and. BC(2,2,g) > 0) fine1( 1 , NN(2,g),1:NN(3,g)) = (fine1(2 ,NN(2,g),1:NN(3,g)) + fine1(1 ,NN(2,g)-1,1:NN(3,g)))/2. !if (BC(2,1,g) > 0 .and. BC(1,2,g) > 0) fine1( NN(1,g), 1 ,1:NN(3,g)) = (fine1(NN(1,g)-1,1 ,1:NN(3,g)) + fine1(NN(1,g),2 ,1:NN(3,g)))/2. !if (BC(2,1,g) > 0 .and. BC(2,2,g) > 0) fine1( NN(1,g), NN(2,g),1:NN(3,g)) = (fine1(NN(1,g)-1,NN(2,g),1:NN(3,g)) + fine1(NN(1,g),NN(2,g)-1,1:NN(3,g)))/2. if (BCL(1) > 0 .and. BCL(2) > 0) phif( 1, 1, 1:Nc(3) ) = ( phif(1+1, 1, 1:Nc(3)) + phif(1 , 1+1, 1:Nc(3)) )/2. if (BCL(1) > 0 .and. BCU(2) > 0) phif( 1, Nc(2), 1:Nc(3) ) = ( phif(1+1, Nc(2), 1:Nc(3)) + phif(1 , Nc(2)-1, 1:Nc(3)) )/2. if (BCU(1) > 0 .and. BCL(2) > 0) phif( Nc(1), 1, 1:Nc(3) ) = ( phif(Nc(1)-1, 1, 1:Nc(3)) + phif(Nc(1), 1+1, 1:Nc(3)) )/2. if (BCU(1) > 0 .and. BCU(2) > 0) phif( Nc(1), Nc(2), 1:Nc(3) ) = ( phif(Nc(1)-1, Nc(2), 1:Nc(3)) + phif(Nc(1), Nc(2)-1, 1:Nc(3)) )/2. !if (BC(1,1,g) > 0 .and. BC(1,3,g) > 0) fine1( 1 ,1:NN(2,g), 1 ) = (fine1(2 ,1:NN(2,g),1 ) + fine1(1 ,1:NN(2,g),2 ))/2. !if (BC(1,1,g) > 0 .and. BC(2,3,g) > 0) fine1( 1 ,1:NN(2,g), NN(3,g)) = (fine1(2 ,1:NN(2,g),NN(3,g)) + fine1(1 ,1:NN(2,g),NN(3,g)-1))/2. !if (BC(2,1,g) > 0 .and. BC(1,3,g) > 0) fine1( NN(1,g),1:NN(2,g), 1 ) = (fine1(NN(1,g)-1,1:NN(2,g),1 ) + fine1(NN(1,g),1:NN(2,g),2 ))/2. !if (BC(2,1,g) > 0 .and. BC(2,3,g) > 0) fine1( NN(1,g),1:NN(2,g), NN(3,g)) = (fine1(NN(1,g)-1,1:NN(2,g),NN(3,g)) + fine1(NN(1,g),1:NN(2,g),NN(3,g)-1))/2. if (BCL(1) > 0 .and. BCL(3) > 0) phif( 1, 1:Nc(2), 1 ) = ( phif(1+1, 1:Nc(2), 1 ) + phif(1, 1:Nc(2), 1+1) )/2. if (BCL(1) > 0 .and. BCU(3) > 0) phif( 1, 1:Nc(2), Nc(3) ) = ( phif(1+1, 1:Nc(2), Nc(3)) + phif(1, 1:Nc(2), Nc(3)-1) )/2. if (BCU(1) > 0 .and. BCL(3) > 0) phif( Nc(1), 1:Nc(2), 1 ) = ( phif(Nc(1)-1, 1:Nc(2), 1 ) + phif(Nc(1), 1:Nc(2), 1+1) )/2. if (BCU(1) > 0 .and. BCU(3) > 0) phif( Nc(1), 1:Nc(2), Nc(3) ) = ( phif(Nc(1)-1, 1:Nc(2), Nc(3)) + phif(Nc(1), 1:Nc(2), Nc(3)-1) )/2. !if (BC(1,2,g) > 0 .and. BC(1,3,g) > 0) fine1(1:NN(1,g), 1 , 1 ) = (fine1(1:NN(1,g),2 ,1 ) + fine1(1:NN(1,g),1 ,2 ))/2. !if (BC(1,2,g) > 0 .and. BC(2,3,g) > 0) fine1(1:NN(1,g), 1 , NN(3,g)) = (fine1(1:NN(1,g),2 ,NN(3,g)) + fine1(1:NN(1,g),1 ,NN(3,g)-1))/2. !if (BC(2,2,g) > 0 .and. BC(1,3,g) > 0) fine1(1:NN(1,g), NN(2,g), 1 ) = (fine1(1:NN(1,g),NN(2,g)-1,1 ) + fine1(1:NN(1,g),NN(2,g),2 ))/2. !if (BC(2,2,g) > 0 .and. BC(2,3,g) > 0) fine1(1:NN(1,g), NN(2,g), NN(3,g)) = (fine1(1:NN(1,g),NN(2,g)-1,NN(3,g)) + fine1(1:NN(1,g),NN(2,g),NN(3,g)-1))/2. if (BCL(2) > 0 .and. BCL(3) > 0) phif( 1:Nc(1), 1, 1 ) = ( phif(1:Nc(1), 1+1, 1 ) + phif(1:Nc(1), 1, 1+1 ) )/2. if (BCL(2) > 0 .and. BCU(3) > 0) phif( 1:Nc(1), 1, Nc(3) ) = ( phif(1:Nc(1), 1+1, Nc(3)) + phif(1:Nc(1), 1, Nc(3)-1) )/2. if (BCU(2) > 0 .and. BCL(3) > 0) phif( 1:Nc(1), Nc(2), 1 ) = ( phif(1:Nc(1), Nc(2)-1, 1 ) + phif(1:Nc(1), Nc(2), 1+1 ) )/2. if (BCU(2) > 0 .and. BCU(3) > 0) phif( 1:Nc(1), Nc(2), Nc(3) ) = ( phif(1:Nc(1), Nc(2)-1, Nc(3)) + phif(1:Nc(1), Nc(2), Nc(3)-1) )/2. end subroutine MG_RestrictCorners !> \note: - für allgemeine di, dj, dk geeignet !! - überlappende Schicht in Blöcken wird (der Einfachheit !! halber) ebenfalls ausgetauscht, ist aber im Prinzip !! redundant (genauer: phiC(S1R:N1R,S2R:N2R,S3R:N3R) = ...). !! - Motivation für diese kurze Routine ist die Möglichkeit, !! auch Varianten wie Full-Weighting etc. ggf. einzubauen, !! ansonsten könnte sie auch eingespaart werden. !! - Die Block-überlappenden Stirnflächen werden ebenfalls !! mitverarbeitet, aber eigentlich nicht gebraucht !! (erleichtert die Programmierung), so dass eine !! Initialisierung notwendig ist. Dies wiederum bedingt die !! INTENT(inout)-Deklaration. subroutine MG_restrictHW( & dimens, & Nf, & bLf,bUf, & Nc, & bLc,bUc, & iimax, & dd, & cR1,cR2,cR3, & phif, & phic ) bind(c,name='MG_restrictHW') implicit none integer(c_int), intent(in) :: dimens integer(c_int), intent(in) :: Nf(3) integer(c_int), intent(in) :: bLf(3) integer(c_int), intent(in) :: bUf(3) integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: iimax(3) integer(c_int), intent(in) :: dd(3) real(c_double), intent(in) :: cR1 ( -1:1, 1:iimax(1) ) real(c_double), intent(in) :: cR2 ( -1:1, 1:iimax(2) ) real(c_double), intent(in) :: cR3 ( -1:1, 1:iimax(3) ) real(c_double), intent(in) :: phif (bLf(1):(Nf(1)+bUf(1)),bLf(2):(Nf(2)+bUf(2)),bLf(3):(Nf(3)+bUf(3))) real(c_double), intent(out) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) integer(c_int) :: i, ii integer(c_int) :: j, jj integer(c_int) :: k, kk if (dimens == 3) then do kk = 1, iimax(3) k = dd(3)(kk-1)+1 do jj = 1, iimax(2) j = dd(2)(jj-1)+1 do ii = 1, iimax(1) i = dd(1)(ii-1)+1 phic(ii,jj,kk) = ((cR1( 0,ii)+cR2( 0,jj)+cR3( 0,kk))phif(i ,j ,k ) + & & cR1(-1,ii) phif(i-1,j ,k ) + & & cR1( 1,ii) phif(i+1,j ,k ) + & & cR2(-1,jj) phif(i ,j-1,k ) + & & cR2( 1,jj) phif(i ,j+1,k ) + & & cR3(-1,kk)phif(i ,j ,k-1) + & & cR3( 1,kk)phif(i ,j ,k+1)) / 3. end do end do end do else k = 1 kk = 1 do jj = 1, iimax(2) j = dd(2)(jj-1)+1 do ii = 1, iimax(1) i = dd(1)(ii-1)+1 phic(ii,jj,kk) = ((cR1( 0,ii)+cR2(0,jj))phif(i ,j ,k) + & & cR1(-1,ii) phif(i-1,j ,k) + & & cR1( 1,ii) phif(i+1,j ,k) + & & cR2(-1,jj)phif(i ,j-1,k) + & & cR2( 1,jj)phif(i ,j+1,k)) / 2. end do end do end if end subroutine MG_restrictHW subroutine MG_RestrictGather( & Nc, & bLc,bUc, & bCL_loc, & bCL_glo, & iimax, & n_gather, & participate_yes, & rankc2, & comm2, & recvR, & dispR, & sizsR, & offsR, & phic ) bind(c,name='MG_RestrictGather') implicit none integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: bCL_loc(3) integer(c_int), intent(in) :: bCL_glo(3) integer(c_int), intent(in) :: iimax(3) integer(c_int), intent(in) :: n_gather(3) logical(c_bool), intent(in) :: participate_yes integer(c_int), intent(in) :: rankc2 integer(c_int), intent(in) :: comm2 integer(c_int), intent(in) :: recvR( 1:n_gather(1)n_gather(2)n_gather(3) ) integer(c_int), intent(in) :: dispR( 1:n_gather(1)n_gather(2)n_gather(3) ) integer(c_int), intent(in) :: sizsR(1:3, 1:n_gather(1)n_gather(2)n_gather(3) ) integer(c_int), intent(in) :: offsR(1:3, 1:n_gather(1)n_gather(2)n_gather(3) ) real(c_double),intent(inout) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) integer(c_int) :: i, ii integer(c_int) :: j, jj integer(c_int) :: k, kk integer(c_int) :: merror real(c_double), allocatable :: sendbuf(:,:,:) integer(c_int) :: sizsg(1:3), offsg(1:3), dispg real(c_double) :: recvbuf( 1:( Nc(1)Nc(2)Nc(3)3 ) ) integer(c_int) :: SS(3) !if (n_gather(1)n_gather(2)n_gather(3) > 1) then SS(:) = 1 if( 0<BCL_loc(1) ) SS(1) = 0 if( 0<BCL_loc(2) ) SS(2) = 0 if( 0<BCL_loc(3) ) SS(3) = 0 ! Anmerkung: Besser nicht fest allocieren um Speicherplatz zu sparen, ODER ! gleich "phic" verwenden! allocate(sendbuf(SS(1):iimax(1),SS(2):iimax(2),SS(3):iimax(3))) do kk = SS(3), iimax(3) do jj = SS(2), iimax(2) do ii = SS(1), iimax(1) sendbuf(ii,jj,kk) = phic(ii,jj,kk) end do end do end do call MPI_GATHERv( & sendbuf, & ! starting address of send buffer (choice) (iimax(1)-SS(1)+1)(iimax(2)-SS(2)+1)(iimax(3)-SS(3)+1), & ! of elements in send buffer MPI_REAL8, & ! data type of send buffer elements recvbuf, & ! address of receive buffer recvR, & ! non-negative integer array (of length group size) containing the number of elements that are received from each process dispR, & ! integer array (of length group size). Entry i specifies the displacement (relative to recvbuf) at which to place the incoming data from process i MPI_REAL8, & ! data type of receive buffer elements (handle) rankc2, & ! rank of receiving process comm2, & ! communicator merror) deallocate(sendbuf) if( participate_yes ) then do k = 1, n_gather(3) do j = 1, n_gather(2) do i = 1, n_gather(1) sizsg(1:3) = sizsR(1:3,i+(j-1)n_gather(1)+(k-1)n_gather(1)n_gather(2)) offsg(1:3) = offsR(1:3,i+(j-1)n_gather(1)+(k-1)n_gather(1)n_gather(2)) dispg = dispR( i+(j-1)n_gather(1)+(k-1)n_gather(1)n_gather(2)) if( 1==i .and. 0<BCL_glo(1) ) offsg(1) = -1 if( 1==j .and. 0<BCL_glo(2) ) offsg(2) = -1 if( 1==k .and. 0<BCL_glo(3) ) offsg(3) = -1 do kk = 1, sizsg(3) do jj = 1, sizsg(2) do ii = 1, sizsg(1) phic(ii+offsg(1),jj+offsg(2),kk+offsg(3)) = recvbuf(dispg+ii+(jj-1)sizsg(1)+(kk-1)sizsg(1)sizsg(2)) end do end do end do end do end do end do end if end subroutine MG_RestrictGather !> restriction !! \note - für allgemeine di, dj, dk geeignet! !! - überlappende Schicht in Blöcken wird (der Einfachheit halber) ebenfalls ausgetauscht, ist !! aber im Prinzip redundant (genauer: phiC(S1R:N1R,S2R:N2R,S3R:N3R) = ...). !! - Motivation für diese kurze Routine ist die Möglichkeit, auch Varianten wie Full-Weighting !! etc. ggf. einzubauen, ansonsten könnte sie auch eingespaart werden. !! - Die Block-überlappenden Stirnflächen werden ebenfalls mitverarbeitet, aber eigentlich !! nicht gebraucht (erleichtert die Programmierung), so dass eine Initialisierung notwendig !! ist. Dies wiederum bedingt die INTENT(inout)-Deklaration. subroutine MG_restrictFW( & dimens, & Nf, & bLf,bUf, & Nc, & bLc,bUc, & iimax, & dd, & cR1,cR2,cR3, & phif, & phic ) bind(c,name='MG_restrictFW') implicit none integer(c_int), intent(in) :: dimens integer(c_int), intent(in) :: Nf(3) integer(c_int), intent(in) :: bLf(3) integer(c_int), intent(in) :: bUf(3) integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: iimax(3) integer(c_int), intent(in) :: dd(3) real(c_double), intent(in) :: cR1 ( -1:1, 1:iimax(1) ) real(c_double), intent(in) :: cR2 ( -1:1, 1:iimax(2) ) real(c_double), intent(in) :: cR3 ( -1:1, 1:iimax(3) ) real(c_double), intent(in) :: phif (bLf(1):(Nf(1)+bUf(1)),bLf(2):(Nf(2)+bUf(2)),bLf(3):(Nf(3)+bUf(3))) real(c_double), intent(out) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) integer(c_int) :: i, ii integer(c_int) :: j, jj integer(c_int) :: k, kk if( dimens == 3 ) then do kk = 1, iimax(3) k = dd(3)(kk-1)+1 do jj = 1, iimax(2) j = dd(2)(jj-1)+1 do ii = 1, iimax(1) i = dd(1)(ii-1)+1 phic(ii,jj,kk) = & & cR1(-1,ii)cR2(-1,jj)cR3(-1,kk)phif(i-1,j-1,k-1) + & & cR1( 0,ii)cR2(-1,jj)cR3(-1,kk)phif(i ,j-1,k-1) + & & cR1(+1,ii)cR2(-1,jj)cR3(-1,kk)phif(i+1,j-1,k-1) + & ! & cR1(-1,ii)cR2( 0,jj)cR3(-1,kk)phif(i-1,j ,k-1) + & & cR1( 0,ii)cR2( 0,jj)cR3(-1,kk)phif(i ,j ,k-1) + & & cR1(+1,ii)cR2( 0,jj)cR3(-1,kk)phif(i+1,j ,k-1) + & ! & cR1(-1,ii)cR2(+1,jj)cR3(-1,kk)phif(i-1,j+1,k-1) + & & cR1( 0,ii)cR2(+1,jj)cR3(-1,kk)phif(i ,j+1,k-1) + & & cR1(+1,ii)cR2(+1,jj)cR3(-1,kk)phif(i+1,j+1,k-1) + & ! & cR1(-1,ii)cR2(-1,jj)cR3( 0,kk)phif(i-1,j-1,k ) + & & cR1( 0,ii)cR2(-1,jj)cR3( 0,kk)phif(i ,j-1,k ) + & & cR1(+1,ii)cR2(-1,jj)cR3( 0,kk)phif(i+1,j-1,k ) + & ! & cR1(-1,ii)cR2( 0,jj)cR3( 0,kk)phif(i-1,j ,k ) + & & cR1( 0,ii)cR2( 0,jj)cR3( 0,kk)phif(i ,j ,k ) + & & cR1(+1,ii)cR2( 0,jj)cR3( 0,kk)phif(i+1,j ,k ) + & ! & cR1(-1,ii)cR2(+1,jj)cR3( 0,kk)phif(i-1,j+1,k ) + & & cR1( 0,ii)cR2(+1,jj)cR3( 0,kk)phif(i ,j+1,k ) + & & cR1(+1,ii)cR2(+1,jj)cR3( 0,kk)phif(i+1,j+1,k ) + & ! ! & cR1(-1,ii)cR2(-1,jj)cR3(+1,kk)phif(i-1,j-1,k+1) + & & cR1( 0,ii)cR2(-1,jj)cR3(+1,kk)phif(i ,j-1,k+1) + & & cR1(+1,ii)cR2(-1,jj)cR3(+1,kk)phif(i+1,j-1,k+1) + & ! & cR1(-1,ii)cR2( 0,jj)cR3(+1,kk)phif(i-1,j ,k+1) + & & cR1( 0,ii)cR2( 0,jj)cR3(+1,kk)phif(i ,j ,k+1) + & & cR1(+1,ii)cR2( 0,jj)cR3(+1,kk)phif(i+1,j ,k+1) + & ! & cR1(-1,ii)cR2(+1,jj)cR3(+1,kk)phif(i-1,j+1,k+1) + & & cR1( 0,ii)cR2(+1,jj)cR3(+1,kk)phif(i ,j+1,k+1) + & & cR1(+1,ii)cR2(+1,jj)cR3(+1,kk)phif(i+1,j+1,k+1) end do end do end do else k = 1 kk = 1 do jj = 1, iimax(2) j = dd(2)(jj-1)+1 do ii = 1, iimax(1) i = dd(1)(ii-1)+1 phic(ii,jj,kk) = & & cR1(-1,ii)cR2(-1,jj)phif(i-1,j-1,k) + & & cR1( 0,ii)cR2(-1,jj)phif(i ,j-1,k) + & & cR1(+1,ii)cR2(-1,jj)phif(i+1,j-1,k) + & ! & cR1(-1,ii)cR2( 0,jj)phif(i-1,j ,k) + & & cR1( 0,ii)cR2( 0,jj)phif(i ,j ,k) + & & cR1(+1,ii)cR2( 0,jj)phif(i+1,j ,k) + & ! & cR1(-1,ii)cR2(+1,jj)phif(i-1,j+1,k) + & & cR1( 0,ii)cR2(+1,jj)phif(i ,j+1,k) + & & cR1(+1,ii)cR2(+1,jj)phif(i+1,j+1,k) end do end do end if end subroutine MG_restrictFW !!> \note - Null-Setzen am Rand nicht notwendig! !!! - Da nur in Richtung der jeweiligen Geschwindigkeitskomponente !!! gemittelt wird, muss nicht die spezialisierte Helmholtz-Variante !!! aufgerufen werden. !!! - Austauschrichtung ist invers zu ex1, ex2, ex3. Bei mehreren Blöcken !!! wird auch der jeweils redundante "überlappende" Punkt aufgrund der !!! zu grossen Intervallgrenzen (1:iimax) zwar berechnet, aber aufgrund !!! des Einweg-Austauschs falsch berechnet! Dieses Vorgehen wurde !!! bislang aus übersichtsgründen vorgezogen, macht aber eine !!! Initialisierung notwendig. !!! Dabei werden Intervalle der Form 0:imax anstelle von 1:imax !!! bearbeitet, da hier nur die das feinste Geschwindigkeitsgitter !!! behandelt wird! !!! - INTENT(inout) ist bei den feinen Gittern notwendig, da Ghost-Werte !!! ausgetauscht werden müssen. !!! - Zuviele Daten werden ausgetauscht; eigentlich müsste in der !!! Grenzfläche nur jeder 4. Punkt behandelt werden (4x zuviel!). !!! Leider etwas unschön, könnte aber durch eine spezialisierte !!! Austauschroutine behandelt werden, da das übergeben von Feldern mit !!! Intervallen von b1L:(iimax+b1U) nur sehr schlecht funktionieren !!! würde (d.h. mit Umkopieren). !subroutine MG_restrictFWV( & !dimens, & !dir, & !Nf, & !bLf,bUf, & !SSf,NNf, & !Nc, & !bLc,bUc, & !SSc,NNc, & !iimax, & !dd, & !cRV, & !cR1,cR2,cR3, & !phif, & !phic ) bind (c,name='MG_restrictFWV') !implicit none !integer(c_int), intent(in) :: dimens !integer(c_int), intent(in) :: dir !integer(c_int), intent(in) :: Nf(1:3) !integer(c_int), intent(in) :: bLf(1:3) !integer(c_int), intent(in) :: bUf(1:3) !integer(c_int), intent(in) :: SSf(1:3) !integer(c_int), intent(in) :: NNf(1:3) !integer(c_int), intent(in) :: Nc(1:3) !integer(c_int), intent(in) :: bLc(1:3) !integer(c_int), intent(in) :: bUc(1:3) !integer(c_int), intent(in) :: SSc(1:3) !integer(c_int), intent(in) :: NNc(1:3) !integer(c_int), intent(in) :: iimax(1:3) !integer(c_int), intent(in) :: dd(1:3) !real(c_double), intent(in) :: cRV ( 1:2, 0:iimax(dir) ) !real(c_double), intent(in) :: cR1 ( -1:1, 1:iimax(1) ) !real(c_double), intent(in) :: cR2 ( -1:1, 1:iimax(2) ) !real(c_double), intent(in) :: cR3 ( -1:1, 1:iimax(3) ) !real(c_double), intent(in) :: phif (bLf(1):(Nf(1)+bUf(1)),bLf(2):(Nf(2)+bUf(2)),bLf(3):(Nf(3)+bUf(3))) !real(c_double), intent(out) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) !integer(c_int) :: i, ii !integer(c_int) :: j, jj !integer(c_int) :: k, kk !! TEST!!! Test schreiben, um n_gather(:,2) .GT. 1 hier zu vermeiden! !! Gleiches gilt natürlich für die Interpolation. !!==================================================================================== !if( 1==dir ) then !if( 2==dimens ) then !!write(,) !!do kk = SSc(3), iimax(3) !!k = kk !!do jj = SSc(2), iimax(2) !!j = dd(2)(jj-1)+1 !!do ii = SSc(1), iimax(1) !!!i = max( dd(1)(ii-1)+1, 0 ) !!i = dd(1)(ii-1)+1 !!!write(,) jj, j !!if( 1==dd(1) ) then !!!phic(ii,jj,kk) = & !!!& cR2( -1, jj)phif(i,j-1,k ) + & !!!& cR2( 0, jj)phif(i,j ,k ) + & !!!& cR2( +1, jj)phif(i,j+1,k ) !!!! !!else !!!phic(ii,jj,kk) = & !!!& cRV(1,ii)cR2(-1,jj)phif(i ,j-1,k ) + & !!!& cRV(2,ii)cR2(-1,jj)phif(i+1,j-1,k ) + & !!!! !!!& cRV(1,ii)cR2( 0,jj)phif(i ,j ,k ) + & !!!& cRV(2,ii)cR2( 0,jj)phif(i+1,j ,k ) + & !!!! !!!& cRV(1,ii)cR2(+1,jj)phif(i ,j+1,k ) + & !!!& cRV(2,ii)cR2(+1,jj)phif(i+1,j+1,k ) !!!! !!end if !!end do !!end do !!end do !else !do kk = SSc(3), iimax(3) !k = dd(3)(kk-1)+1 !do jj = SSc(2), iimax(2) !j = dd(2)(jj-1)+1 !do ii = SSc(1), iimax(1) !!i = max( dd(1)(ii-1)+1, 0 ) !i = dd(1)(ii-1)+1 !if( 1==dd(1) ) then !!phic(ii,jj,kk) = & !!& cR2( -1, jj)cR3(-1,kk)phif(i,j-1,k-1) + & !!& cR2( 0, jj)cR3(-1,kk)phif(i,j ,k-1) + & !!& cR2( +1, jj)cR3(-1,kk)phif(i,j+1,k-1) + & !!! !!& cR2( -1, jj)cR3( 0,kk)phif(i,j-1,k ) + & !!& cR2( 0, jj)cR3( 0,kk)phif(i,j ,k ) + & !!& cR2( +1, jj)cR3( 0,kk)phif(i,j+1,k ) + & !!! !!& cR2( -1, jj)cR3(+1,kk)phif(i,j-1,k+1) + & !!& cR2( 0, jj)cR3(+1,kk)phif(i,j ,k+1) + & !!& cR2( +1, jj)cR3(+1,kk)phif(i,j+1,k+1) !else !!phic(ii,jj,kk) = & !!& cRV(1,ii)cR2(-1,jj)cR3(-1,kk)phif(i ,j-1,k-1) + & !!& cRV(2,ii)cR2(-1,jj)cR3(-1,kk)phif(i+1,j-1,k-1) + & !!! !!& cRV(1,ii)cR2( 0,jj)cR3(-1,kk)phif(i ,j ,k-1) + & !!& cRV(2,ii)cR2( 0,jj)cR3(-1,kk)phif(i+1,j ,k-1) + & !!! !!& cRV(1,ii)cR2(+1,jj)cR3(-1,kk)phif(i ,j+1,k-1) + & !!& cRV(2,ii)cR2(+1,jj)cR3(-1,kk)phif(i+1,j+1,k-1) + & !!! !!& cRV(1,ii)cR2(-1,jj)cR3( 0,kk)phif(i ,j-1,k ) + & !!& cRV(2,ii)cR2(-1,jj)cR3( 0,kk)phif(i+1,j-1,k ) + & !!! !!& cRV(1,ii)cR2( 0,jj)cR3( 0,kk)phif(i ,j ,k ) + & !!& cRV(2,ii)cR2( 0,jj)cR3( 0,kk)phif(i+1,j ,k ) + & !!! !!& cRV(1,ii)cR2(+1,jj)cR3( 0,kk)phif(i ,j+1,k ) + & !!& cRV(2,ii)cR2(+1,jj)cR3( 0,kk)phif(i+1,j+1,k ) + & !!! !!& cRV(1,ii)cR2(-1,jj)cR3(+1,kk)phif(i ,j-1,k+1) + & !!& cRV(2,ii)cR2(-1,jj)cR3(+1,kk)phif(i+1,j-1,k+1) + & !!! !!& cRV(1,ii)cR2( 0,jj)cR3(+1,kk)phif(i ,j ,k+1) + & !!& cRV(2,ii)cR2( 0,jj)cR3(+1,kk)phif(i+1,j ,k+1) + & !!! !!& cRV(1,ii)cR2(+1,jj)cR3(+1,kk)phif(i ,j+1,k+1) + & !!& cRV(2,ii)cR2(+1,jj)cR3(+1,kk)phif(i+1,j+1,k+1) !end if !end do !end do !end do !end if !end if !!==================================================================================== !if( 2==dir ) then !!if( 2==dimens ) then !!do kk = SSc(3), iimax(3) !!k = kk !!do jj = SSc(2), iimax(2) !!!j = dd(2)(jj-1)+1 !!j = dd(2)(jj-1)+1 !!do ii = SSc(1), iimax(1) !!i = dd(1)(ii-1)+1 !!if( 1==dd(2) ) then !!phic(ii,jj,kk) = & !!& cR1( -1, ii)phif(i-1,j,k ) + & !!& cR1( 0, ii)phif(i ,j,k ) + & !!& cR1( +1, ii)phif(i+1,j,k ) !!else !!phic(ii,jj,kk) = & !!& cR1(-1,ii)cRV(1,jj)phif(i-1,j ,k ) + & !!& cR1( 0,ii)cRV(1,jj)phif(i ,j ,k ) + & !!& cR1(+1,ii)cRV(1,jj)phif(i+1,j ,k ) + & !!! !!& cR1(-1,ii)cRV(2,jj)phif(i-1,j+1,k ) + & !!& cR1( 0,ii)cRV(2,jj)phif(i ,j+1,k ) + & !!& cR1(+1,ii)cRV(2,jj)phif(i+1,j+1,k ) !!end if !!end do !!end do !!end do !!else !!do kk = SSc(3), iimax(3) !!k = dd(3)(kk-1)+1 !!do jj = SSc(2), iimax(2) !!j = dd(2)(jj-1)+1 !!do ii = SSc(1), iimax(1) !!i = dd(1)(ii-1)+1 !!if( 1==dd(2) ) then !!phic(ii,jj,kk) = & !!& cR1( -1, ii)cR3(-1,kk)phif(i-1,j,k-1) + & !!& cR1( 0, ii)cR3(-1,kk)phif(i ,j,k-1) + & !!& cR1( +1, ii)cR3(-1,kk)phif(i+1,j,k-1) + & !!! !!& cR1( -1, ii)cR3( 0,kk)phif(i-1,j,k ) + & !!& cR1( 0, ii)cR3( 0,kk)phif(i ,j,k ) + & !!& cR1( +1, ii)cR3( 0,kk)phif(i+1,j,k ) + & !!! !!& cR1( -1, ii)cR3(+1,kk)phif(i-1,j,k+1) + & !!& cR1( 0, ii)cR3(+1,kk)phif(i ,j,k+1) + & !!& cR1( +1, ii)cR3(+1,kk)phif(i+1,j,k+1) !!else !!phic(ii,jj,kk) = & !!& cR1(-1,ii)cRV(1,jj)cR3(-1,kk)phif(i-1,j ,k-1) + & !!& cR1( 0,ii)cRV(1,jj)cR3(-1,kk)phif(i ,j ,k-1) + & !!& cR1(+1,ii)cRV(1,jj)cR3(-1,kk)phif(i+1,j ,k-1) + & !!! !!& cR1(-1,ii)cRV(2,jj)cR3(-1,kk)phif(i-1,j+1,k-1) + & !!& cR1( 0,ii)cRV(2,jj)cR3(-1,kk)phif(i ,j+1,k-1) + & !!& cR1(+1,ii)cRV(2,jj)cR3(-1,kk)phif(i+1,j+1,k-1) + & !!! !!& cR1(-1,ii)cRV(1,jj)cR3( 0,kk)phif(i-1,j ,k ) + & !!& cR1( 0,ii)cRV(1,jj)cR3( 0,kk)phif(i ,j ,k ) + & !!& cR1(+1,ii)cRV(1,jj)cR3( 0,kk)phif(i+1,j ,k ) + & !!! !!& cR1(-1,ii)cRV(2,jj)cR3( 0,kk)phif(i-1,j+1,k ) + & !!& cR1( 0,ii)cRV(2,jj)cR3( 0,kk)phif(i ,j+1,k ) + & !!& cR1(+1,ii)cRV(2,jj)cR3( 0,kk)phif(i+1,j+1,k ) + & !!! !!& cR1(-1,ii)cRV(1,jj)cR3(+1,kk)phif(i-1,j ,k+1) + & !!& cR1( 0,ii)cRV(1,jj)cR3(+1,kk)phif(i ,j ,k+1) + & !!& cR1(+1,ii)cRV(1,jj)cR3(+1,kk)phif(i+1,j ,k+1) + & !!! !!& cR1(-1,ii)cRV(2,jj)cR3(+1,kk)phif(i-1,j+1,k+1) + & !!& cR1( 0,ii)cRV(2,jj)cR3(+1,kk)phif(i ,j+1,k+1) + & !!& cR1(+1,ii)cRV(2,jj)cR3(+1,kk)phif(i+1,j+1,k+1) !!end if !!end do !!end do !!end do !!end if !end if !!==================================================================================== !if( 3==dimens .and. dir==3 ) then !do kk = SSc(3), iimax(3) !k = dd(3)(kk-1)+1 !do jj = SSc(2), iimax(2) !j = dd(2)(jj-1)+1 !do ii = SSc(1), iimax(1) !i = dd(1)(ii-1)+1 !if( 1==dd(3) ) then !phic(ii,jj,kk) = & !& cR1(-1,ii)cR2(-1,jj)phif(i-1,j-1,k) + & !& cR1( 0,ii)cR2(-1,jj)phif(i ,j-1,k) + & !& cR1(+1,ii)cR2(-1,jj)phif(i+1,j-1,k) + & !! !& cR1(-1,ii)cR2( 0,jj)phif(i-1,j ,k) + & !& cR1( 0,ii)cR2( 0,jj)phif(i ,j ,k) + & !& cR1(+1,ii)cR2( 0,jj)phif(i+1,j ,k) + & !! !& cR1(-1,ii)cR2(+1,jj)phif(i-1,j+1,k) + & !& cR1( 0,ii)cR2(+1,jj)phif(i ,j+1,k) + & !& cR1(+1,ii)cR2(+1,jj)phif(i+1,j+1,k) !else !phic(ii,jj,kk) = & !& cR1(-1,ii)cR2(-1,jj)cRV(1,kk)phif(i-1,j-1,k ) + & !& cR1( 0,ii)cR2(-1,jj)cRV(1,kk)phif(i ,j-1,k ) + & !& cR1(+1,ii)cR2(-1,jj)cRV(1,kk)phif(i+1,j-1,k ) + & !! !& cR1(-1,ii)cR2(-1,jj)cRV(2,kk)phif(i-1,j-1,k+1) + & !& cR1( 0,ii)cR2(-1,jj)cRV(2,kk)phif(i ,j-1,k+1) + & !& cR1(+1,ii)cR2(-1,jj)cRV(2,kk)phif(i+1,j-1,k+1) + & !! !& cR1(-1,ii)cR2( 0,jj)cRV(1,kk)phif(i-1,j ,k ) + & !& cR1( 0,ii)cR2( 0,jj)cRV(1,kk)phif(i ,j ,k ) + & !& cR1(+1,ii)cR2( 0,jj)cRV(1,kk)phif(i+1,j ,k ) + & !! !& cR1(-1,ii)cR2( 0,jj)cRV(2,kk)phif(i-1,j ,k+1) + & !& cR1( 0,ii)cR2( 0,jj)cRV(2,kk)phif(i ,j ,k+1) + & !& cR1(+1,ii)cR2( 0,jj)cRV(2,kk)phif(i+1,j ,k+1) + & !! !& cR1(-1,ii)cR2(+1,jj)cRV(1,kk)phif(i-1,j+1,k ) + & !& cR1( 0,ii)cR2(+1,jj)cRV(1,kk)phif(i ,j+1,k ) + & !& cR1(+1,ii)cR2(+1,jj)cRV(1,kk)phif(i+1,j+1,k ) + & !! !& cR1(-1,ii)cR2(+1,jj)cRV(2,kk)phif(i-1,j+1,k+1) + & !& cR1( 0,ii)cR2(+1,jj)cRV(2,kk)phif(i ,j+1,k+1) + & !& cR1(+1,ii)cR2(+1,jj)cRV(2,kk)phif(i+1,j+1,k+1) !end if !end do !end do !end do !end if !!=========================================================================================== !end subroutine MG_restrictFWV end module cmod_RestrictionOp	src/src_f/cmod_RestrictionOp.f90
c ====================================================================== c User Subroutine VUMAT for Johnson-Cook model. c All rights of reproduction or distribution in any form are reserved. c By Irfan Habeeb CN (PhD, Technion - IIT) c ====================================================================== subroutine vumat( C Read only - 1 nblock, ndir, nshr, nstatev, nfieldv, nprops, lanneal, 2 stepTime, totalTime, dt, cmname, coordMp, charLength, 3 props, density, strainInc, relSpinInc, 4 tempOld, stretchOld, defgradOld, fieldOld, 5 stressOld, stateOld, enerInternOld, enerInelasOld, 6 tempNew, stretchNew, defgradNew, fieldNew, C Write only - 7 stressNew, stateNew, enerInternNew, enerInelasNew) C include 'vaba_param.inc' C dimension props(nprops), density(nblock), coordMp(nblock,), 1 charLength(nblock), strainInc(nblock,ndir+nshr), 2 relSpinInc(nblock,nshr), tempOld(nblock), 3 stretchOld(nblock,ndir+nshr), 4 defgradOld(nblock,ndir+nshr+nshr), 5 fieldOld(nblock,nfieldv), stressOld(nblock,ndir+nshr), 6 stateOld(nblock,nstatev), enerInternOld(nblock), 7 enerInelasOld(nblock), tempNew(nblock), 8 stretchNew(nblock,ndir+nshr), 9 defgradNew(nblock,ndir+nshr+nshr), 1 fieldNew(nblock,nfieldv), 2 stressNew(nblock,ndir+nshr), stateNew(nblock,nstatev), 3 enerInternNew(nblock), enerInelasNew(nblock) character80 cmname integer k, k1, k2, iter real8 E, nu, A, B, C, m, n, rate0, Tr, Tm, rho, TQ, Cp, WH, 1 sigeqv, f, epbar, ep, dep, eprateN, sighyd, sigyT, sigyN, dPwork, 2 trInc, fT, fs, fN, fNs, sigdotp, epbarN, tempT, tempN, dWork, 3 mu, alamda, tol, 4 cmat(6,6), sTrial(6), sNew(6), devS(6), sTem(6), rd(6), 5 L(6,6), sOld(6), sT(6), np(6) c input parameters E = props(1) ! Young's modulus nu = props(2) ! Poisson's ratio A = props(3) ! JC parameters B = props(4) C = props(5) n = props(6) m = props(7) rate0 = props(8) Tr = props(9) ! reference temperature Tm = props(10) ! melting temperature rho = props(11) ! density TQ = props(12) ! Taylor-Q heat ener. from plastic deform. Cp = props(13) ! specific heat WH = props(14) ! work - heat conversion factor c tolerance of the effe. stress, strain accuracy: ep ~ 1e-9 tol = E1e-9 ! strain accuracy or 1e-9 Niter = 50 ! max number of N-R iterations c lame's parameters mu = E/(2.d0(1.d0+nu)) alamda = Enu/((1.d0 + nu) * (1.d0 - 2.d0nu)) c stiffness matrix cmat = 0.d0 do k1 = 1, ndir do k2 = 1, ndir cmat(k1, k2) = alamda end do cmat(k1, k1) = alamda + 2.d0mu end do do k1 = ndir+1, ndir+nshr cmat(k1, k1) = 2.d0mu end do C -------------------- simulation first step & later ------------------- do 30 k = 1, nblock if (stateOld(k, 1) .eq. 0.d0) then go to 10 else go to 20 end if C----------------------------- initial state --------------------------- 10 trInc = sum(strainInc(k, 1:3)) do k1 = 1, ndir stressNew(k, k1) = stressOld(k, k1) + alamdatrInc + 1 2.d0mustrainInc(k, k1) end do do k1 = ndir+1, ndir+nshr stressNew(k, k1) = stressOld(k, k1) + 1 2.d0mustrainInc(k, k1) end do stateNew(k, 1) = 1.d0 ! initiation check stateNew(k, 2) = 0.d0 ! plastic strain stateNew(k, 3) = Tr ! initial temperature stateNew(k, 4) = 0.d0 ! yield stress stateNew(k, 5) = 0.d0 ! plastic strain incre. last step stateNew(k, 6) = 1 ! number of iterations tempNew(k) = Tr go to 30 C-------------------------- 2nd step and later ------------------------- 20 epbar = stateOld(k, 2) tempT = stateOld(k, 3) sigyT = stateOld(k, 4) sOld(1:6) = stressOld(k, 1:6) trInc = sum(strainInc(k, 1:3)) do k1 = 1, ndir sT(k1) = stressOld(k,k1) +alamdatrInc +2.d0mustrainInc(k, k1) end do do k1 = ndir+1, ndir+nshr sT(k1) = stressOld(k, k1) + 2.d0mustrainInc(k, k1) end do c to get the vector for radial reduction sighyd = sum(sT(1:ndir))/3.d0 devS(1:ndir) = sT(1:ndir) - sighyd devS(ndir+1:ndir+nshr) = sT(ndir+1:ndir+nshr) c equivalent stress sigeqv = sqrt(3.d0/2.d0 (devS(1)2.d0 + devS(2)2.d0 + 1 devS(3)*2.d0 + 2.d0devS(4)*2.d0 + 2.d0devS(5)*2.d0 + 2 2.d0devS(6)*2.d0 )) c rd is constant over the iterations if (sigeqv .gt. 0.d0) then rd = (3.d0devS)/(2.d0sigeqv) else rd = 0.d0 end if sTem = matmul(cmat, rd) c initial value of the plastic strain increment and the bounds ep = 0.d0 ! initial plast. strain incre. epmin = 0.d0 epmax = sigeqv/(2.d0mu) !max(1.d-5, 3.d01.d-5) c NR - iteration starts iter = 0 ! number of iterations do while (iter .lt. Niter) iter = iter + 1 if (iter .gt. Niter-1.) then print, 'too many iterations, iter = ', iter call XPLB_EXIT end if epbarN = epbar + ep eprateN = ep/dt tempN = tempT ! temperature is updated at the end c updating stress sNew = sT - epsTem sighyd = sum(sNew(1:ndir))/3.d0 c deviatoric stress devS(1:ndir) = sNew(1:ndir) - sighyd devS(ndir+1:ndir+nshr) = sNew(ndir+1:ndir+nshr) c equivalent stress sigeqv = sqrt(3.d0/2.d0 (devS(1)2.d0 + devS(2)2.d0 + 1 devS(3)*2.d0 + 2.d0devS(4)*2.d0 + 2.d0devS(5)*2.d0 + 2 2.d0devS(6)*2.d0 )) c evaluating new yield stress for the increment 'ep' call func_syield(A, B, epbarN, n, Tr, Tm, tempN, m, C, eprateN, 1 rate0, sigyN) if (sigyN .lt. sigyT) sigyN = sigyT f = sigeqv - sigyN if (abs(f) .lt. tol) exit ! out of the iteration c elastic criteria, ep = 0 & f < 0 if ((ep .eq. 0.d0) .and. (f .lt. 0.d0)) go to 12 c rearranging the margins and new plastic strain increm. if ((f .ge. 0.d0) .and. (ep .ge. epmin)) epmin = ep if ((f .lt. 0.d0) .and. (ep .lt. epmax)) epmax = ep ep = 0.5d0 (epmax + epmin) c restoring the plastic strain increment from the last step if (iter .eq. 1) ep = stateOld(k, 5) end do 12 stressNew(k, 1:6) = sNew(1:6) c work, plastic work and temp dWork = dot_product( 0.5d0(sOld(1:6) + sNew(1:6)), 1 strainInc(k, 1:6)) dPwork = 0.5d0 ep * sigeqv enerInternNew(k) = enerInternOld(k) + dWork/rho enerInelasNew(k) = enerInelasOld(k) + dPwork/rho c updating state variables stateNew(k, 1) = 1.d0 ! to flag the initial step stateNew(k, 2) = epbarN ! plastic strain stateNew(k, 3) = tempT + WHTQdPwork/rho/Cp ! temperature stateNew(k, 4) = sigyN ! yield stress stateNew(k, 5) = ep ! plastic strain incre. stateNew(k, 6) = stateOld(k, 6) + iter ! number of iterations 30 continue return end c ---------------------------------------------------------------------- subroutine func_syield(A, B, epbar, n, Tr, Tm, T, m, C, rate, 1 rate0, sigbar) include 'vaba_param.inc' real8 A, B, epbar, n, Tr, Tm, T, theta, m, C, rate, rate0, sigbar if (T < Tr) then theta = 0.d0 else if (T > Tm) then theta = 1.d0 else theta = (T - Tr)/(Tm - Tr) end if if (rate == 0.d0) then rate = rate0 end if sigbar = (A + Bepbar*n)(1.d0 - theta*m) 1 (1.d0 + C*log(rate/rate0)) end subroutine c ----------------------------------------------------------------------	vumat_JC.for
C C C Copyright (C) 2000, 2001 Silicon Graphics, Inc. All Rights Reserved. C C This program is free software; you can redistribute it and/or modify it C under the terms of version 2.1 of the GNU Lesser General Public License C as published by the Free Software Foundation. C C This program is distributed in the hope that it would be useful, but C WITHOUT ANY WARRANTY; without even the implied warranty of C MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. C C Further, this software is distributed without any warranty that it is C free of the rightful claim of any third person regarding infringement C or the like. Any license provided herein, whether implied or C otherwise, applies only to this software file. Patent licenses, if C any, provided herein do not apply to combinations of this program with C other software, or any other product whatsoever. C C You should have received a copy of the GNU Lesser General Public C License along with this program; if not, write the Free Software C Foundation, Inc., 59 Temple Place - Suite 330, Boston MA 02111-1307, C USA. C C Contact information: Silicon Graphics, Inc., 1600 Amphitheatre Pky, C Mountain View, CA 94043, or: C C http://www.sgi.com C C For further information regarding this notice, see: C C http://oss.sgi.com/projects/GenInfo/NoticeExplan C C SUBROUTINE VXGCTI(FPN,DEST,ISB,NUM,IER,INC) C C The VXDCTI subroutine converts Cray 64-bit single-precision C floating-point numbers to VAX G_format single-precision C floating-point numbers. Numbers that produce an underflow when C converted to VAX format are converted to 32 binary zeros. Numbers C that are in overflow on the CRAY are converted to a "reserved" C floating-point representation with the sign bit set if negative. C Numbers that are valid on the CRAY but overflow on the VAX are C converted to the most positive possible number or most negative C possible number, depending on the sign. C C Presently, you must supply a parameter which, in the future, C will contain a nonzero value if any numbers converted produced C an overflow. No such indication will be given for underflow. C REAL FPN(1) ! Variable or array of any length and C ! type real, containing Cray 64-bit, C ! single-precision, floating-point C ! numbers to convert. C INTEGER DEST(1) ! Variable or array of type real to C ! contain the converted values. C INTEGER ISB ! Byte number at which to begin C ! storing the converted results. Type C ! integer variable, expression, or C ! constant. Bytes are numbered from C ! 1, beginning at the leftmost byte C ! position of DEST. C INTEGER NUM ! Number of Cray floating-point C ! numbers to convert. Type integer C ! variable, expression, or constant. C INTEGER IER ! Overflow indicator of type C ! integer. Value is 0 if all Cray C ! values convert to VAX values without C ! overflow. Value is nonzero if one C ! or more Cray values overflowed in C ! the conversion. C INTEGER INC ! Memory increment for fetching the C ! number to be converted. Optional C ! parameter of type integer variable, C ! expression, or constant. Default C ! value is 1. INTEGER ITEMP(64), JTEMP(32) CDIR$ VFUNCTION VG64O INTEGER VG64O IF (NUMARG() .EQ. 5) THEN JNC = 1 ELSE IF (NUMARG() .EQ. 6) THEN JNC = INC ELSE CALL ABORT('VAX conversion routine called with incorrect number +of arguments') ENDIF IF (NUM .LT. 0) THEN CALL ABORT('Invalid input to VAX conversion routine') ENDIF NUMC = NUM JSB = ISB J = 1 IER = 0 IF (NUM .EQ. 0) RETURN 40 CONTINUE NUMP = MIN0(NUMC,64) CDIR$ SHORTLOOP DO 80 I = 1, NUMP ITEMP(I) = VG64O(DBLE(FPN(J))) J = J + JNC 80 CONTINUE CALL VXMOVE00(ITEMP,1,NUMP8,DEST,JSB) JSB = JSB + 8NUMP NUMC = NUMC - NUMP IF (NUMC .GT. 0) GO TO 40 RETURN CDIR$ ID "@(#) libu/vms/vxgcti.f 92.0 10/08/98 14:57:41" END	osprey/libu/vms/vxgcti.f
C-------------------------------------------------------------- C All the routines in this file were updated on 9 Feb 2015 to C reverse the dimensions of "clcntr"/"c" (from "k x n" to C "n x k") so that the calling C routine could have the C dimensions be K x N. C-------------------------------------------------------------- C NCLFORTSTART subroutine kmns136 (dat, m, n, clcntr, k, ic1, nc + ,iter, iseed, wss, ier) implicit none c ! INPUT integer m, n, k, iter, iseed double precision dat(m,n) c ! INPUT/OUTPUT integer ic1(m), nc(k), ier double precision clcntr(n,k), wss(k) C NCLEND c ! LOCAL WORK ARRAYS integer ic2(m), ncp(k), itran(k), live(k) double precision an1(k), an2(k), d(m) integer nv, kk, mm c Currently: two methods to set the seed c . iseed=1 pick 1st k elements of the dat array c . iseed=2 'randomly' sample the dat array do kk=1,k if (iseed.eq.1) then mm = kk else mm = m/kk end if do nv=1,n clcntr(nv,kk) = dat(mm,nv) c c c print ,"mm=", mm," kk=",kk," nv=",nv," clc=",clcntr(kk,nv) end do end do call kmns (dat,m,n,clcntr,k,ic1,ic2,nc,an1,an2,ncp,d & ,itran,live,iter,wss,ier ) return end c*******************************************************************72 subroutine kmns ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, d & ,itran, live, iter, wss, ifault ) c cc KMNS carries out the K-means algorithm. c c Discussion: c c This routine attempts to divide M points in N-dimensional space into c K clusters so that the within cluster sum of squares is minimized. c c Modified: c c 13 February 2008 c c Author: c c Original FORTRAN77 version by John Hartigan, Manchek Wong. c Modifications by John Burkardt. c c Reference: c c John Hartigan, Manchek Wong, c Algorithm AS 136: c A K-Means Clustering Algorithm, c Applied Statistics, c Volume 28, Number 1, 1979, pages 100-108. c c Parameters: c c Input, double precision A(M,N), the points. c c Input, integer M, the number of points. c c Input, integer N, the number of spatial dimensions (aka, variables). c c Input/output, double precision C(N,K), the cluster centers. c c Input, integer K, the number of clusters. c c Output, integer IC1(M), the cluster to which each point is assigned. c c Workspace, integer IC2(M), used to store the cluster which each point c is most likely to be transferred to at each step. c c Output, integer NC(K), the number of points in each cluster. c c Workspace, double precision AN1(K). c c Workspace, double precision AN2(K). c c Workspace, integer NCP(K). c c Workspace, double precision D(M). c c Workspace, integer ITRAN(K). c c Workspace, integer LIVE(K). c c Input, integer ITER, the maximum number of iterations allowed. c c Output, double precision WSS(K), the within-cluster sum of squares c of each cluster. c c Output, integer IFAULT, error indicator. c 0, no error was detected. c 1, at least one cluster is empty after the initial assignment. c A better set of initial cluster centers is needed. c 2, the allowed maximum number off iterations was exceeded. c 3, K is less than or equal to 1, or greater than or equal to M. c implicit none integer k integer m integer n double precision a(m,n) double precision aa double precision an1(k) double precision an2(k) double precision c(n,k) double precision d(m) double precision da double precision db double precision dc double precision dt(2) integer i integer ic1(m) integer ic2(m) integer ifault integer ii integer ij integer il integer indx integer iter integer itran(k) integer j integer l integer live(k) integer nc(k) integer ncp(k) double precision r8_huge double precision temp double precision wss(k) ifault = 0 if ( k .le. 1 .or. m .le. k ) then ifault = 3 return end if c c For each point I, find its two closest centers, IC1(I) and c IC2(I). Assign the point to IC1(I). c do i = 1, m ic1(i) = 1 ic2(i) = 2 do il = 1, 2 dt(il) = 0.0D+00 do j = 1, n da = a(i,j) - c(j,il) dt(il) = dt(il) + da da end do end do if ( dt(2) .lt. dt(1) ) then ic1(i) = 2 ic2(i) = 1 temp = dt(1) dt(1) = dt(2) dt(2) = temp end if do l = 3, k db = 0.0D+00 do j = 1, n dc = a(i,j) - c(j,l) db = db + dc * dc end do if ( db .lt. dt(2) ) then if ( dt(1) .le. db ) then dt(2) = db ic2(i) = l else dt(2) = dt(1) ic2(i) = ic1(i) dt(1) = db ic1(i) = l end if end if end do end do c c Update cluster centers to be the average of points contained within them. c do l = 1, k nc(l) = 0 do j = 1, n c(j,l) = 0.0D+00 end do end do do i = 1, m l = ic1(i) nc(l) = nc(l) + 1 do j = 1, n c(j,l) = c(j,l) + a(i,j) end do end do c c Check to see if there is any empty cluster at this stage. c ifault = 1 do l = 1, k if ( nc(l) .eq. 0 ) then ifault = 1 return end if end do ifault = 0 do l = 1, k aa = dble ( nc(l) ) do j = 1, n c(j,l) = c(j,l) / aa end do c c Initialize AN1, AN2, ITRAN and NCP. c c AN1(L) = NC(L) / (NC(L) - 1) c AN2(L) = NC(L) / (NC(L) + 1) c ITRAN(L) = 1 if cluster L is updated in the quick-transfer stage, c = 0 otherwise c c In the optimal-transfer stage, NCP(L) stores the step at which c cluster L is last updated. c c In the quick-transfer stage, NCP(L) stores the step at which c cluster L is last updated plus M. c an2(l) = aa / ( aa + 1.0D+00 ) if ( 1.0D+00 .lt. aa ) then an1(l) = aa / ( aa - 1.0D+00 ) else an1(l) = r8_huge ( ) end if itran(l) = 1 ncp(l) = -1 end do indx = 0 ifault = 2 do ij = 1, iter c c In this stage, there is only one pass through the data. Each c point is re-allocated, if necessary, to the cluster that will c induce the maximum reduction in within-cluster sum of squares. c call optra ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, d, & itran, live, indx ) c c Stop if no transfer took place in the last M optimal transfer steps. c if ( indx .eq. m ) then ifault = 0 go to 150 end if c c Each point is tested in turn to see if it should be re-allocated c to the cluster to which it is most likely to be transferred, c IC2(I), from its present cluster, IC1(I). Loop through the c data until no further change is to take place. c call qtran ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, d, & itran, indx ) c c If there are only two clusters, there is no need to re-enter the c optimal transfer stage. c if ( k .eq. 2 ) then ifault = 0 go to 150 end if c c NCP has to be set to 0 before entering OPTRA. c do l = 1, k ncp(l) = 0 end do end do 150 continue c c If the maximum number of iterations was taken without convergence, c IFAULT is 2 now. This may indicate unforeseen looping. c if ( ifault == 2 ) then write ( , '(a)' ) ' ' write ( , '(a)' ) 'KMNS - Warning!' write ( , '(a)' ) ' Maximum number of iterations reached' write ( , '(a)' ) ' without convergence.' end if c c Compute the within-cluster sum of squares for each cluster. c do l = 1, k wss(l) = 0.0D+00 do j = 1, n c(j,l) = 0.0D+00 end do end do do i = 1, m ii = ic1(i) do j = 1, n c(j,ii) = c(j,ii) + a(i,j) end do end do do j = 1, n do l = 1, k c(j,l) = c(j,l) / dble ( nc(l) ) end do do i = 1, m ii = ic1(i) da = a(i,j) - c(j,ii) wss(ii) = wss(ii) + da * da end do end do return end subroutine optra ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, & d, itran, live, indx ) c********************************************************************72 c cc OPTRA carries out the optimal transfer stage. c c Discussion: c c This is the optimal transfer stage. c c Each point is re-allocated, if necessary, to the cluster that c will induce a maximum reduction in the within-cluster sum of c squares. c c Modified: c c 15 February 2008 c c Author: c c Original FORTRAN77 version by John Hartigan, Manchek Wong. c Modifications by John Burkardt. c c Reference: c c John Hartigan, Manchek Wong, c Algorithm AS 136: c A K-Means Clustering Algorithm, c Applied Statistics, c Volume 28, Number 1, 1979, pages 100-108. c c Parameters: c c Input, double precision A(M,N), the points. c c Input, integer M, the number of points. c c Input, integer N, the number of spatial dimensions. c c Input/output, double precision C(N,K), the cluster centers. c c Input, integer K, the number of clusters. c c Input/output, integer IC1(M), the cluster to which each point is assigned. c c Input/output, integer IC2(M), used to store the cluster which each point c is most likely to be transferred to at each step. c c Input/output, integer NC(K), the number of points in each cluster. c c Input/output, double precision AN1(K). c c Input/output, double precision AN2(K). c c Input/output, integer NCP(K). c c Input/output, double precision D(M). c c Input/output, integer ITRAN(K). c c Input/output, integer LIVE(K). c c Input/output, integer INDX, the number of steps since a transfer took place. c implicit none integer k integer m integer n double precision a(m,n) double precision al1 double precision al2 double precision alt double precision alw double precision an1(k) double precision an2(k) double precision c(n,k) double precision d(m) double precision da double precision db double precision dc double precision dd double precision de double precision df integer i integer ic1(m) integer ic2(m) integer indx integer itran(k) integer j integer l integer l1 integer l2 integer live(k) integer ll integer nc(k) integer ncp(k) double precision r2 double precision r8_huge double precision rr c c If cluster L is updated in the last quick-transfer stage, it c belongs to the live set throughout this stage. Otherwise, at c each step, it is not in the live set if it has not been updated c in the last M optimal transfer steps. c do l = 1, k if ( itran(l) .eq. 1) then live(l) = m + 1 end if end do do i = 1, m indx = indx + 1 l1 = ic1(i) l2 = ic2(i) ll = l2 c c If point I is the only member of cluster L1, no transfer. c if ( 1 .lt. nc(l1) ) then c c If L1 has not yet been updated in this stage, no need to c re-compute D(I). c if ( ncp(l1) .ne. 0 ) then de = 0.0D+00 do j = 1, n df = a(i,j) - c(j,l1) de = de + df df end do d(i) = de * an1(l1) end if c c Find the cluster with minimum R2. c da = 0.0D+00 do j = 1, n db = a(i,j) - c(j,l2) da = da + db * db end do r2 = da * an2(l2) do l = 1, k c c If LIVE(L1) <= I, then L1 is not in the live set. If this is c true, we only need to consider clusters that are in the live set c for possible transfer of point I. Otherwise, we need to consider c all possible clusters. c if ( ( i .lt. live(l1) .or. i .lt. live(l2) ) .and. & l .ne. l1 .and. l .ne. ll ) then rr = r2 / an2(l) dc = 0.0D+00 do j = 1, n dd = a(i,j) - c(j,l) dc = dc + dd * dd end do if ( dc .lt. rr ) then r2 = dc * an2(l) l2 = l end if end if end do c c If no transfer is necessary, L2 is the new IC2(I). c if ( d(i) .le. r2 ) then ic2(i) = l2 c c Update cluster centers, LIVE, NCP, AN1 and AN2 for clusters L1 and c L2, and update IC1(I) and IC2(I). c else indx = 0 live(l1) = m + i live(l2) = m + i ncp(l1) = i ncp(l2) = i al1 = nc(l1) alw = al1 - 1.0D+00 al2 = nc(l2) alt = al2 + 1.0D+00 do j = 1, n c(j,l1) = ( c(j,l1) * al1 - a(i,j) ) / alw c(j,l2) = ( c(j,l2) * al2 + a(i,j) ) / alt end do nc(l1) = nc(l1) - 1 nc(l2) = nc(l2) + 1 an2(l1) = alw / al1 if ( 1.0D+00 .lt. alw ) then an1(l1) = alw / ( alw - 1.0D+00 ) else an1(l1) = r8_huge ( ) end if an1(l2) = alt / al2 an2(l2) = alt / ( alt + 1.0D+00 ) ic1(i) = l2 ic2(i) = l1 end if end if if ( indx .eq. m ) then return end if end do c c ITRAN(L) = 0 before entering QTRAN. Also, LIVE(L) has to be c decreased by M before re-entering OPTRA. c do l = 1, k itran(l) = 0 live(l) = live(l) - m end do return end subroutine qtran ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, & d, itran, indx ) c********************************************************************72 c cc QTRAN carries out the quick transfer stage. c c Discussion: c c This is the quick transfer stage. c c IC1(I) is the cluster which point I belongs to. c IC2(I) is the cluster which point I is most likely to be c transferred to. c c For each point I, IC1(I) and IC2(I) are switched, if necessary, to c reduce within-cluster sum of squares. The cluster centers are c updated after each step. c c Modified: c c 15 February 2008 c c Author: c c Original FORTRAN77 version by John Hartigan, Manchek Wong. c Modifications by John Burkardt. c c Reference: c c John Hartigan, Manchek Wong, c Algorithm AS 136: c A K-Means Clustering Algorithm, c Applied Statistics, c Volume 28, Number 1, 1979, pages 100-108. c c Parameters: c c Input, double precision A(M,N), the points. c c Input, integer M, the number of points. c c Input, integer N, the number of spatial dimensions. c c Input/output, double precision C(N,K), the cluster centers. c c Input, integer K, the number of clusters. c c Input/output, integer IC1(M), the cluster to which each point is assigned. c c Input/output, integer IC2(M), used to store the cluster which each point c is most likely to be transferred to at each step. c c Input/output, integer NC(K), the number of points in each cluster. c c Input/output, double precision AN1(K). c c Input/output, double precision AN2(K). c c Input/output, integer NCP(K). c c Input/output, double precision D(M). c c Input/output, integer ITRAN(K). c c Input/output, integer INDX, counts the number of steps since the c last transfer. c implicit none integer k integer m integer n double precision a(m,n) double precision al1 double precision al2 double precision alt double precision alw double precision an1(k) double precision an2(k) double precision c(n,k) double precision d(m) double precision da double precision db double precision dd double precision de integer i integer ic1(m) integer ic2(m) integer icoun integer indx integer istep integer itran(k) integer j integer l1 integer l2 integer nc(k) integer ncp(k) double precision r2 double precision r8_huge c c In the optimal transfer stage, NCP(L) indicates the step at which c cluster L is last updated. In the quick transfer stage, NCP(L) c is equal to the step at which cluster L is last updated plus M. c icoun = 0 istep = 0 10 continue do i = 1, m icoun = icoun + 1 istep = istep + 1 l1 = ic1(i) l2 = ic2(i) c c If point I is the only member of cluster L1, no transfer. c if ( 1 .lt. nc(l1) ) then c c If NCP(L1) < ISTEP, no need to re-compute distance from point I to c cluster L1. Note that if cluster L1 is last updated exactly M c steps ago, we still need to compute the distance from point I to c cluster L1. c if ( istep .le. ncp(l1) ) then da = 0.0D+00 do j = 1, n db = a(i,j) - c(j,l1) da = da + db db end do d(i) = da * an1(l1) end if c c If NCP(L1) <= ISTEP and NCP(L2) <= ISTEP, there will be no transfer of c point I at this step. c if ( istep .lt. ncp(l1) .or. istep .lt. ncp(l2) ) then r2 = d(i) / an2(l2) dd = 0.0D+00 do j = 1, n de = a(i,j) - c(j,l2) dd = dd + de * de end do c c Update cluster centers, NCP, NC, ITRAN, AN1 and AN2 for clusters c L1 and L2. Also update IC1(I) and IC2(I). Note that if any c updating occurs in this stage, INDX is set back to 0. c if ( dd .lt. r2 ) then icoun = 0 indx = 0 itran(l1) = 1 itran(l2) = 1 ncp(l1) = istep + m ncp(l2) = istep + m al1 = nc(l1) alw = al1 - 1.0D+00 al2 = nc(l2) alt = al2 + 1.0D+00 do j = 1, n c(j,l1) = ( c(j,l1) * al1 - a(i,j) ) / alw c(j,l2) = ( c(j,l2) * al2 + a(i,j) ) / alt end do nc(l1) = nc(l1) - 1 nc(l2) = nc(l2) + 1 an2(l1) = alw / al1 if ( 1.0D+00 .lt. alw ) then an1(l1) = alw / ( alw - 1.0D+00 ) else an1(l1) = r8_huge ( ) end if an1(l2) = alt / al2 an2(l2) = alt / ( alt + 1.0D+00 ) ic1(i) = l2 ic2(i) = l1 end if end if end if c c If no re-allocation took place in the last M steps, return. c if ( icoun .eq. m ) then return end if end do go to 10 end function r8_huge ( ) c*********************************************************************72 c cc R8_HUGE returns a "huge" R8. c c Modified: c c 13 April 2004 c c Author: c c John Burkardt c c Parameters: c c Output, double precision R8_HUGE, a huge number. c implicit none double precision r8_huge r8_huge = 1.0D+30 return end	ni/src/lib/nfpfort/kmeans_kmns_as136.f
!-------------------------------------------------------------------------------- ! Copyright (c) 2016 Peter Grünberg Institut, Forschungszentrum Jülich, Germany ! This file is part of FLEUR and available as free software under the conditions ! of the MIT license as expressed in the LICENSE file in more detail. !-------------------------------------------------------------------------------- MODULE m_types_hub1inp USE m_juDFT USE m_constants USE m_types_fleurinput_base IMPLICIT NONE PRIVATE TYPE, EXTENDS(t_fleurinput_base):: t_hub1inp !Convergence criteria for the density matrix INTEGER :: itmax = 5 REAL :: minoccDistance=1.0e-2 REAL :: minmatDistance=1.0e-3 LOGICAL :: l_dftspinpol=.FALSE. !Determines whether the DFT part is spin-polarized in a magnetic DFT+Hubbard 1 calculation LOGICAL :: l_fullMatch=.TRUE. !Determines whether two chemical potentials are used to match (if possible) LOGICAL :: l_nonsphDC=.TRUE. !Determines whether to remove the nonspherical contributions to the Hamiltonian (in the HIA orbital) !Parameters for the solver REAL :: beta = 100.0 !inverse temperature INTEGER :: n_occpm = 2 !number of particle excitations considered in the solver REAL, ALLOCATABLE :: init_occ(:) !initial occupation REAL, ALLOCATABLE :: ccf(:) !crystal field factor REAL, ALLOCATABLE :: xi_par(:) !Fixed SOC parameters INTEGER, ALLOCATABLE :: n_exc(:) INTEGER, ALLOCATABLE :: exc_l(:,:) !l quantum number from which the intraorbital exchange REAL, ALLOCATABLE :: exc(:,:) !exchange splitting parameter REAL, ALLOCATABLE :: init_mom(:,:) !initial magnetic moment !Additional arguments to be passed on to hloc.cfg (at the moment only real) INTEGER, ALLOCATABLE :: n_addArgs(:) CHARACTER(len=100), ALLOCATABLE :: arg_keys(:,:) REAL, ALLOCATABLE :: arg_vals(:,:) !Switches for arguments that were explicitly given and should not be calculated from DFT LOGICAL,ALLOCATABLE :: l_soc_given(:) LOGICAL,ALLOCATABLE :: l_ccf_given(:) CONTAINS PROCEDURE :: read_xml => read_xml_hub1inp PROCEDURE :: mpi_bc => mpi_bc_hub1inp END TYPE t_hub1inp PUBLIC t_hub1inp CONTAINS SUBROUTINE mpi_bc_hub1inp(this, mpi_comm, irank) USE m_mpi_bc_tool CLASS(t_hub1inp), INTENT(INOUT)::this INTEGER, INTENT(IN):: mpi_comm INTEGER, INTENT(IN), OPTIONAL::irank INTEGER ::rank IF (PRESENT(irank)) THEN rank = irank ELSE rank = 0 END IF CALL mpi_bc(this%itmax,rank,mpi_comm) CALL mpi_bc(this%minoccDistance,rank,mpi_comm) CALL mpi_bc(this%minmatDistance,rank,mpi_comm) CALL mpi_bc(this%l_dftspinpol,rank,mpi_comm) CALL mpi_bc(this%l_fullMatch,rank,mpi_comm) CALL mpi_bc(this%l_nonsphDC,rank,mpi_comm) CALL mpi_bc(this%beta,rank,mpi_comm) CALL mpi_bc(this%n_occpm,rank,mpi_comm) CALL mpi_bc(this%init_occ,rank,mpi_comm) CALL mpi_bc(this%ccf,rank,mpi_comm) CALL mpi_bc(this%xi_par,rank,mpi_comm) CALL mpi_bc(this%n_exc,rank,mpi_comm) CALL mpi_bc(this%exc_l,rank,mpi_comm) CALL mpi_bc(this%exc,rank,mpi_comm) CALL mpi_bc(this%init_mom,rank,mpi_comm) CALL mpi_bc(this%n_addArgs,rank,mpi_comm) CALL mpi_bc(this%arg_keys,rank,mpi_comm) CALL mpi_bc(this%arg_vals,rank,mpi_comm) CALL mpi_bc(this%l_soc_given,rank,mpi_comm) CALL mpi_bc(this%l_ccf_given,rank,mpi_comm) END SUBROUTINE mpi_bc_hub1inp SUBROUTINE read_xml_hub1inp(this, xml) USE m_types_xml CLASS(t_hub1inp), INTENT(INOUT):: this TYPE(t_xml),INTENT(INOUT) ::xml INTEGER::numberNodes,ntype,n_maxaddArgs INTEGER::i_hia,itype,i_exc,i_addArg,i,j,hub1_l CHARACTER(len=100) :: xPathA,xPathB,xPathS,key,tmp_str REAL::val ntype = xml%GetNumberOfNodes('/fleurInput/atomGroups/atomGroup') n_maxaddArgs = 5 !Maximum allowed number of additional arguments (excluding xiSOC and ccf) ALLOCATE(this%init_occ(4ntype),source=0.0) ALLOCATE(this%ccf(4ntype),source=-1.0) ALLOCATE(this%xi_par(4ntype),source=0.0) ALLOCATE(this%n_exc(4ntype),source=0) ALLOCATE(this%exc_l(4ntype,lmaxU_const),source=-1) ALLOCATE(this%exc(4ntype,lmaxU_const),source=0.0) ALLOCATE(this%init_mom(4ntype,lmaxU_const),source=0.0) ALLOCATE(this%n_addArgs(4ntype),source=0) ALLOCATE(this%arg_keys(4ntype,n_maxaddArgs)) this%arg_keys='' !For some reason source doesn't work here ALLOCATE(this%arg_vals(4ntype,n_maxaddArgs),source=0.0) ALLOCATE(this%l_soc_given(4ntype),source=.FALSE.) ALLOCATE(this%l_ccf_given(4ntype),source=.FALSE.) !General parameters: xPathA = '/fleurInput/calculationSetup/ldaHIA' numberNodes = xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathA))) IF(numberNodes==1) THEN this%itmax = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@itmax')) this%minoccDistance = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@minoccDistance')) this%minmatDistance = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@minmatDistance')) this%beta = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@beta')) this%n_occpm = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@n_occpm')) this%l_dftspinpol = evaluateFirstBoolOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@dftspinpol')) this%l_fullMatch = evaluateFirstBoolOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@fullMatch')) this%l_nonsphDC = evaluateFirstBoolOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@l_nonsphDC')) ENDIF !Read in the additional information given in the ldaHIA tags (exchange splitting and additional keywords) i_hia=0 DO itype = 1, ntype xPathS = xml%speciesPath(itype) DO j = 1, xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathS))//'/ldaHIA') i_hia = i_hia + 1 WRITE(xPathA,) TRIM(ADJUSTL(xPathS))//'/ldaHIA[',j,']' !Read in the hubbard 1 orbital for a later check hub1_l = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@l')) !Initial occupation tmp_str = TRIM(ADJUSTL(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@init_occ'))) IF(TRIM(ADJUSTL(tmp_str))=="calc") THEN this%init_occ(i_hia) = -9e99 ELSE this%init_occ(i_hia) = evaluateFirstOnly(TRIM(ADJUSTL(tmp_str))) ENDIF !Additional exchange splitting DO i_exc = 1, xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathA))//'/exc') WRITE(xPathB,) TRIM(ADJUSTL(xPathA))//'/exc[',i_exc,']' IF(i_exc>lmaxU_const) CALL juDFT_error("Too many additional exchange splittings provided. Maximum is 3.",& calledby="read_xml_hub1inp") this%n_exc(i_hia) = this%n_exc(i_hia) + 1 this%exc_l(i_hia,i_exc) = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@l')) this%exc(i_hia,i_exc) = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@J')) tmp_str = TRIM(ADJUSTL(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@init_mom'))) IF(TRIM(ADJUSTL(tmp_str))=="calc") THEN this%init_mom(i_hia,i_exc) = -9e99 ELSE this%init_mom(i_hia,i_exc) = evaluateFirstOnly(TRIM(ADJUSTL(tmp_str))) ENDIF !Check if the given l is valid (l<3 and not the same as the hubbard orbital) IF(this%exc_l(i_hia,i_exc).EQ.hub1_l.OR.this%exc_l(i_hia,i_exc).GT.3) & CALL juDFT_error("Additional exchange splitting: Not a valid l"& ,calledby="read_xml_hub1inp") !Check if there already is a defined exchange splitting on this orbital DO i = 1, this%n_exc(i_hia)-1 IF(this%exc_l(i_hia,i_exc)==this%exc_l(i_hia,i)) & CALL juDFT_error("Two exchange splittings defined for equal l"& ,calledby="read_xml_hub1inp") ENDDO ENDDO DO i_addArg = 1, xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathA))//'/addArg') WRITE(xPathB,*) TRIM(ADJUSTL(xPathA))//'/addArg[',i_addArg,']' IF(i_addArg>n_maxaddArgs) CALL juDFT_error("Too many additional arguments provided. Maximum is 5.",& calledby="read_xml_hub1inp") key = xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@key') val = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@value')) DO i = 1, this%n_addArgs(i_hia) IF(TRIM(ADJUSTL(key)).EQ.TRIM(ADJUSTL(this%arg_keys(i_hia,i)))) THEN CALL juDFT_error("Ambigous additional arguments: You specified two arguments with the same keyword"& ,calledby="read_xml_hub1inp") ENDIF ENDDO SELECT CASE(TRIM(ADJUSTL(key))) CASE('xiSOC') !Do not get soc from DFT and use provided value IF(this%l_soc_given(i_hia)) CALL juDFT_error("Two SOC parameters provided",calledby="read_xml_hub1inp") this%l_soc_given(i_hia) = .TRUE. this%xi_par(i_hia) = val IF(ABS(this%xi_par(i_hia))< 0.001) this%xi_par(i_hia) = 0.001 CASE('ccf') IF(this%l_ccf_given(i_hia)) CALL juDFT_error("Two crystal field factors provided",calledby="read_xml_hub1inp") this%l_ccf_given(i_hia) = .TRUE. this%ccf(i_hia) = val CASE DEFAULT !Additional argument -> simply pass on to solver this%n_addArgs(i_hia) = this%n_addArgs(i_hia) + 1 this%arg_keys(i_hia,this%n_addArgs(i_hia)) = TRIM(ADJUSTL(key)) this%arg_vals(i_hia,this%n_addArgs(i_hia)) = val END SELECT ENDDO ENDDO ENDDO END SUBROUTINE read_xml_hub1inp END MODULE m_types_hub1inp	fleurinput/types_hub1inp.f90
module qlibc_util_m use iso_c_binding implicit none interface ! void qtreetbl_copy_data_c(void val_data_from, void val_data_to, size_t size_data, bool freemem) subroutine qlibc_copy_data_c(val_data_from, val_data_to, size_data, freemem) bind(c) import :: c_ptr, c_size_t, c_bool type(c_ptr), value :: val_data_from type(c_ptr), value :: val_data_to integer(c_size_t), value :: size_data logical(c_bool), value :: freemem end subroutine ! void qlibc_free_c(void obj) subroutine qlibc_free_c(obj) bind(c) import :: c_ptr type(c_ptr), value :: obj end subroutine end interface contains pure function f_c_string(f_string) result (c_string) use, intrinsic :: iso_c_binding, only: c_char, c_null_char implicit none character(len=), intent(in) :: f_string character(len=1,kind=c_char) :: c_string(len_trim(f_string)+1) integer :: n, i n = len_trim(f_string) do i = 1, n c_string(i) = f_string(i:i) end do c_string(n + 1) = c_null_char end function end module qlibc_util_m	qcontainers_f/qlibc_util.f90
program collect_events implicit none character512 string512,eventfile character19 basicfile,nextbasicfile character15 outputfile integer istep,i,numoffiles,nbunches,nevents,ievents,junit(80) double precision xtotal,absxsec,evwgt,xsecfrac integer i_orig common /c_i_orig/i_orig integer ioutput parameter(ioutput=99) integer nevents_file(80),proc_id(80) double precision xsecfrac_all(80) common /to_xsecfrac/xsecfrac_all common /to_nevents_file/nevents_file,proc_id integer proc_id_tot(0:100) double precision xsec(100),xsecABS,xerr(100) logical get_xsec_from_res1 common/total_xsec/xsec,xerr,xsecABS,proc_id_tot,get_xsec_from_res1 write (,) "Overwrite the event weights?" write (,) "give '0' to keep original weights;" write (,) "give '1' to overwrite the weights"/ $ /" to sum to the Xsec;" write (,) "give '2' to overwrite the weights"/ $ /" to average to the Xsec (=default)" write (,) "give '3' to overwrite the weights"/ $ /" to either +/- 1." read (,) i_orig if (i_orig.ne.0 .and. i_orig.ne.1 .and. i_orig.ne.2 .and. $ i_orig.ne.3) stop write(,) i_orig istep=0 1 continue write (,) 'step #',istep outputfile='allevents_X_000' if(istep.eq.0) then basicfile='nevents_unweighted' outputfile='allevents_0_000' else basicfile='nevents_unweighted0' if(istep.gt.8) then write (,) 'Error, istep too large',istep stop endif write(basicfile(19:19),'(i1)')istep write(outputfile(11:11),'(i1)')istep endif nextbasicfile='nevents_unweighted0' write(nextbasicfile(19:19),'(i1)')istep+1 open(unit=10,file=basicfile,status='old') open(unit=98,file=nextbasicfile,status='unknown') call get_orderstags_glob_infos() c c First get the cross section from the res_1 files c if (istep.eq.0) then call get_xsec(10) endif numoffiles=0 nbunches=0 nevents=0 xtotal=0.d0 do while (.true.) read(10,'(512a)',err=2,end=2) string512 eventfile=string512(2:index(string512,' ')) read(string512(index(string512,' '):512),) $ ievents,absxsec,xsecfrac if (ievents.eq.0) cycle nevents=nevents+ievents numoffiles=numoffiles+1 xsecfrac_all(numoffiles) = xsecfrac c store here the proc_id as computed from directory name ("@XX" in c process generation) if (eventfile(1:1).eq.'P') then if (eventfile(3:3).eq.'_') then read(eventfile(2:2),'(i1)') proc_id(numoffiles) elseif(eventfile(4:4).eq.'_') then read(eventfile(2:3),'(i2)') proc_id(numoffiles) elseif(eventfile(5:5).eq.'_') then read(eventfile(2:4),'(i3)') proc_id(numoffiles) else write (,) 'ERROR in collect_events: '/ $ /'cannot find process ID' stop endif else proc_id(numoffiles)=-1 endif c store here the number of events per file nevents_file(numoffiles) = ievents xtotal=xtotal+absxsec junit(numoffiles)=numoffiles+10 open(unit=junit(numoffiles),file=eventfile,status='old', & err=999) c Every time we find 80 files, collect the events if (numoffiles.eq.80) then nbunches=nbunches+1 if (i_orig.eq.1) then if (.not.get_xsec_from_res1) then evwgt=xtotal/dfloat(nevents) else evwgt=xsecABS/dfloat(nevents) endif elseif(i_orig.eq.2) then if (.not.get_xsec_from_res1) then evwgt=xtotal else evwgt=xsecABS endif elseif(i_orig.eq.3) then evwgt=1d0 endif write (,) 'found ',numoffiles, & ' files, bunch number is',nbunches if(nbunches.le.9) then write(outputfile(15:15),'(i1)')nbunches elseif(nbunches.le.99) then write(outputfile(14:15),'(i2)')nbunches elseif(nbunches.le.999) then write(outputfile(13:15),'(i3)')nbunches else write (,) 'Error, too many bunches' stop endif open (unit=ioutput,file=outputfile,status='unknown') call collect_all_evfiles(ioutput,numoffiles,junit, # nevents,evwgt) do i=1,numoffiles if (istep.eq.0) then close (junit(i)) else close (junit(i),status='delete') endif enddo close (ioutput) write(98,) outputfile(1:15),' ',nevents,' ',xtotal, # ' ', 1e0 numoffiles=0 nevents=0 xtotal=0.d0 endif enddo 2 continue close(10) c Also collect events from the rest files if(numoffiles.ne.0) then nbunches=nbunches+1 if (i_orig.eq.1) then if (.not.get_xsec_from_res1) then evwgt=xtotal/dfloat(nevents) else evwgt=xsecABS/dfloat(nevents) endif elseif(i_orig.eq.2) then if (.not.get_xsec_from_res1) then evwgt=xtotal else evwgt=xsecABS endif elseif(i_orig.eq.3) then evwgt=1d0 endif write (,) 'found ',numoffiles, & ' files, bunch number is',nbunches if(nbunches.le.9) then write(outputfile(15:15),'(i1)')nbunches elseif(nbunches.le.99) then write(outputfile(14:15),'(i2)')nbunches elseif(nbunches.le.999) then write(outputfile(13:15),'(i3)')nbunches else write (,) 'Error, too many bunches' stop endif open (unit=ioutput,file=outputfile,status='unknown') call collect_all_evfiles(ioutput,numoffiles,junit, # nevents,evwgt) do i=1,numoffiles if (istep.eq.0) then close (junit(i)) else close (junit(i),status='delete') endif enddo close(ioutput) write(98,) outputfile(1:15),' ',nevents,' ',xtotal, # ' ', 1e0 endif close(98) c if(nbunches.gt.1) then istep=istep+1 write (,) 'More than 1 bunch, doing next step',istep goto 1 else write (,) 'Done. Final event file (with',nevents, & ' events) is:' write (,) outputfile(1:15) endif return c 999 continue write (,) 'Error, event file',eventfile,' not found' stop end subroutine collect_all_evfiles(ioutput,numoffiles,junit,imaxevt $ ,evwgt) use extra_weights implicit none integer i_orig common /c_i_orig/i_orig integer ioutput,junit(80) integer imaxevt,maxevt,ii,numoffiles,nevents,itot,iunit, # mx_of_evt(80),i0,i,j,jj,kk,n,nn double precision evwgt,evwgt_sign integer ione parameter (ione=1) integer IDBMUP(2),PDFGUP(2),PDFSUP(2),IDWTUP,NPRUP,LPRUP double precision EBMUP(2),XSECUP,XERRUP,XMAXUP integer IDBMUP1(2),PDFGUP1(2),PDFSUP1(2),IDWTUP1,NPRUP1,LPRUP1 double precision EBMUP1(2),XSECUP1,XERRUP1,XMAXUP1 INTEGER MAXNUP PARAMETER (MAXNUP=500) INTEGER NUP,IDPRUP,IDUP(MAXNUP),ISTUP(MAXNUP), # MOTHUP(2,MAXNUP),ICOLUP(2,MAXNUP) DOUBLE PRECISION XWGTUP,SCALUP,AQEDUP,AQCDUP, # PUP(5,MAXNUP),VTIMUP(MAXNUP),SPINUP(MAXNUP) character140 buff character10 MonteCarlo,MonteCarlo1, MonteCarlo0 character100 path integer iseed data iseed/1/ double precision rnd,fk88random external fk88random integer nevents_file(80),proc_id(80) common /to_nevents_file/nevents_file,proc_id double precision xsecfrac_all(80) common /to_xsecfrac/xsecfrac_all double precision XSECUP2(100),XERRUP2(100),XMAXUP2(100) integer LPRUP2(100) common /lhef_init/XSECUP2,XERRUP2,XMAXUP2,LPRUP2 double precision xsecup_l(100),xerrup_l(100) integer lprup_l(100),nproc_l logical found_proc include 'run.inc' integer proc_id_tot(0:100) double precision xsec(100),xsecABS,xerr(100) logical get_xsec_from_res1 common/total_xsec/xsec,xerr,xsecABS,proc_id_tot,get_xsec_from_res1 c Common blocks for the orders tags integer n_orderstags,oo integer orderstags_glob(maxorders) common /c_orderstags_glob/n_orderstags, orderstags_glob c maxevt=0 if (.not. get_xsec_from_res1) then do i=1,100 xsecup_l(i)=0.d0 xerrup_l(i)=0.d0 enddo else do i=1,100 if (i.le.proc_id_tot(0)) then xsecup_l(i)=xsec(i) xerrup_l(i)=xerr(i) lprup_l(i) =proc_id_tot(i) else xsecup_l(i)=0.d0 xerrup_l(i)=0.d0 endif enddo endif call read_lhef_header(junit(ione),maxevt,MonteCarlo) if (MonteCarlo .ne. '') MonteCarlo0 = MonteCarlo call read_lhef_init(junit(ione), # IDBMUP,EBMUP,PDFGUP,PDFSUP,IDWTUP,NPRUP, # XSECUP,XERRUP,XMAXUP,LPRUP) c if the number of the events is in the header (as for evt files in the c subchannel folders (P/G/), the number of events should be in the c header. Check consistency in this case if (maxevt .gt. 0) then mx_of_evt(1)=maxevt if (mx_of_evt(1) .ne. nevents_file(1)) then write(,) 'Inconsistent event file 1, unit=', junit(1) write(,) 'Expected # of events:', nevents_file(1) write(,) 'Found # of events:', mx_of_evt(1) stop endif else mx_of_evt(1)=nevents_file(1) endif maxevt=mx_of_evt(1) nproc_l=NPRUP if (.not. get_xsec_from_res1) then do i=1,nproc_l xerrup_l(i)=xerrup2(i)2 xsecfrac_all(ione) xsecup_l(i)=xsecup2(i) * xsecfrac_all(ione) if (proc_id(ione).ne.-1) then lprup_l(i)=proc_id(ione) if (nproc_l.gt.1) then write (,) $ 'ERROR: inconsistent nproc in collect_event' write (,) nproc_l,NPRUP write (,) proc_id stop endif else lprup_l(i)=lprup2(i) endif enddo endif do ii=2,numoffiles call read_lhef_header(junit(ii),nevents,MonteCarlo1) if (nevents .gt. 0) then mx_of_evt(ii)=nevents if (mx_of_evt(ii) .ne. nevents_file(ii)) then write(,) 'Inconsistent event file, unit=',junit(ii) write(,) 'Expected # of events:', nevents_file(ii) write(,) 'Found # of events:', mx_of_evt(ii) stop endif else mx_of_evt(ii)=nevents_file(ii) endif if(MonteCarlo.ne.MonteCarlo1)then write(,)'Error in collect_all_evfiles' write(,)'Files ',ione,' and ',ii,' are inconsistent' write(,)'Monte Carlo types are not the same' write(,)'1', MonteCarlo, '2', MonteCarlo1 stop endif maxevt=maxevt+mx_of_evt(ii) call read_lhef_init(junit(ii), # IDBMUP1,EBMUP1,PDFGUP1,PDFSUP1,IDWTUP1,NPRUP1, # XSECUP1,XERRUP1,XMAXUP1,LPRUP1) if (.not.get_xsec_from_res1) then if(proc_id(ii).ne.-1) then lprup2(1)=proc_id(ii) endif do i=1,NPRUP1 found_proc=.false. do j=1,nproc_l if (lprup_l(j).eq.lprup2(i)) then xerrup_l(j)=xerrup_l(j)+xerrup2(i)*2 xsecfrac_all(ii) xsecup_l(j)=xsecup_l(j)+xsecup2(i) xsecfrac_all(ii) found_proc=.true. exit endif enddo if (.not.found_proc) then nproc_l=nproc_l+1 xerrup_l(nproc_l)=xerrup2(i)2 xsecfrac_all(ii) xsecup_l(nproc_l)=xsecup2(i) xsecfrac_all(ii) lprup_l(nproc_l)=lprup2(i) endif enddo endif if( # IDBMUP(1).ne.IDBMUP1(1) .or. # IDBMUP(2).ne.IDBMUP1(2) .or. # EBMUP(1) .ne.EBMUP1(1) .or. # EBMUP(2) .ne.EBMUP1(2) .or. # PDFGUP(1).ne.PDFGUP1(1) .or. # PDFGUP(2).ne.PDFGUP1(2) .or. # PDFSUP(1).ne.PDFSUP1(1) .or. # PDFSUP(2).ne.PDFSUP1(2))then write(,)'Error in collect_all_evfiles' write(,)'Files ',ione,' and ',ii,' are inconsistent' write(,)'Run parameters are not the same' stop endif enddo if(maxevt.ne.imaxevt)then write(,)'Error in collect_all_evfiles' write(,)'Total number of events inconsistent with input' write(,)maxevt,imaxevt stop endif if (.not.get_xsec_from_res1) then do i=1,nproc_l xerrup_l(i)=sqrt(xerrup_l(i)) enddo endif XSECUP=xsecup_l(ione) XERRUP=xerrup_l(ione) LPRUP=lprup_l(ione) if (.not.get_xsec_from_res1) then NPRUP=nproc_l else NPRUP=proc_id_tot(0) endif do i=1,NPRUP XSECUP2(i)=xsecup_l(i) xerrup2(i)=xerrup_l(i) lprup2(i)=lprup_l(i) xmaxup2(i)=abs(evwgt) enddo path="../Cards/" call write_lhef_header_banner(ioutput,maxevt,MonteCarlo0,path) call write_lhef_init(ioutput, # IDBMUP,EBMUP,PDFGUP,PDFSUP,IDWTUP,NPRUP, # XSECUP,XERRUP,abs(evwgt),LPRUP) itot=maxevt do i=1,maxevt rnd=fk88random(iseed) call whichone(rnd,numoffiles,itot,mx_of_evt,junit,iunit,i0) call read_lhef_event(iunit, # NUP,IDPRUP,XWGTUP,SCALUP,AQEDUP,AQCDUP, # IDUP,ISTUP,MOTHUP,ICOLUP,PUP,VTIMUP,SPINUP,buff) if (proc_id(i0).ne.-1) IDPRUP=proc_id(i0) if (i_orig.eq.0) then evwgt_sign=XWGTUP else c Overwrite the weights. Also overwrite the weights used for PDF & scale c reweighting evwgt_sign=dsign(evwgt,XWGTUP) if (do_rwgt_scale) then do oo=0,n_orderstags do kk=1,dyn_scale(0) if (lscalevar(kk)) then do ii=1,nint(scalevarF(0)) do jj=1,nint(scalevarR(0)) wgtxsecmu(oo,jj,ii,kk)=wgtxsecmu(oo,jj,ii,kk) $ evwgt_sign/XWGTUP enddo enddo else wgtxsecmu(oo,1,1,kk)=wgtxsecmu(oo,1,1,kk) $ evwgt_sign/XWGTUP endif enddo enddo endif if (do_rwgt_pdf) then do nn=1,lhaPDFid(0) if (lpdfvar(nn)) then do n=0,nmemPDF(nn) wgtxsecPDF(n,nn)=wgtxsecPDF(n,nn)evwgt_sign/XWGTUP enddo else wgtxsecPDF(0,nn)=wgtxsecPDF(0,nn)evwgt_sign/XWGTUP endif enddo endif endif call write_lhef_event(ioutput, # NUP,IDPRUP,evwgt_sign,SCALUP,AQEDUP,AQCDUP, # IDUP,ISTUP,MOTHUP,ICOLUP,PUP,VTIMUP,SPINUP,buff) enddo write(ioutput,'(a)')'</LesHouchesEvents>' return end subroutine whichone(rnd,numoffiles,itot,mx_of_evt,junit,iunit,i0) implicit none double precision rnd,tiny,one,xp(80),xsum,prob integer numoffiles,itot,mx_of_evt(80),junit(80),iunit,ifiles,i0 logical flag parameter (tiny=1.d-4) c if(itot.le.0)then write(6,)'fatal error #1 in whichone' stop endif one=0.d0 do ifiles=1,numoffiles xp(ifiles)=dfloat(mx_of_evt(ifiles))/dfloat(itot) one=one+xp(ifiles) enddo if(abs(one-1.d0).gt.tiny)then write(6,)'whichone: probability not normalized' stop endif c i0=0 flag=.true. xsum=0.d0 do while(flag) if(i0.gt.numoffiles)then write(6,)'fatal error #2 in whichone' stop endif i0=i0+1 prob=xp(i0) xsum=xsum+prob if(rnd.lt.xsum)then flag=.false. itot=itot-1 mx_of_evt(i0)=mx_of_evt(i0)-1 iunit=junit(i0) endif enddo return end FUNCTION FK88RANDOM(SEED) * ----------------- * Ref.: K. Park and K.W. Miller, Comm. of the ACM 31 (1988) p.1192 * Use seed = 1 as first value. * IMPLICIT INTEGER(A-Z) REAL8 MINV,FK88RANDOM SAVE PARAMETER(M=2147483647,A=16807,Q=127773,R=2836) PARAMETER(MINV=0.46566128752458d-09) HI = SEED/Q LO = MOD(SEED,Q) SEED = ALO - RHI IF(SEED.LE.0) SEED = SEED + M FK88RANDOM = SEEDMINV END subroutine get_xsec(unit10) implicit none integer unit10 character120 string120,eventfile,results_file,read_line integer proc_id_l,add_xsec_to,i,ievents double precision xsec_read,xerr_read,absxsec,xsecfrac,xsecABS_read integer proc_id_tot(0:100) double precision xsec(100),xsecABS,xerr(100) logical get_xsec_from_res1 common/total_xsec/xsec,xerr,xsecABS,proc_id_tot,get_xsec_from_res1 proc_id_tot(0)=0 get_xsec_from_res1=.true. xsecABS=0d0 do read(unit10,'(120a)',end=22,err=22) string120 eventfile=string120(2:index(string120,' ')) read(string120(index(string120,' '):120),) $ ievents,absxsec,xsecfrac if (eventfile(1:1).eq.'P') then if (eventfile(3:3).eq.'_') then read(eventfile(2:2),'(i1)') proc_id_l elseif(eventfile(4:4).eq.'_') then read(eventfile(2:3),'(i2)') proc_id_l elseif(eventfile(5:5).eq.'_') then read(eventfile(2:4),'(i3)') proc_id_l else write (,) 'ERROR in collect_events: '/ $ /'cannot find process ID' stop endif else proc_id_l=-1 get_xsec_from_res1=.false. exit endif if (index(eventfile,'events.lhe').eq.0) then get_xsec_from_res1=.false. exit endif results_file=eventfile(1:index(eventfile,'events.lhe')-1) $ //'res_1' open (unit=11,file=results_file,status='old',err=998) read (11,'(120a)',err=998) read_line read(read_line(index(read_line,'Final result [ABS]:')+20:),* $ ,err=998)xsecABS_read read (11,'(120a)',err=998) read_line close (11) read(read_line(index(read_line,'Final result:')+14:),,err=998) $ xsec_read read(read_line(index(read_line,'+/-')+4:),,err=998) xerr_read add_xsec_to=-1 if (proc_id_tot(0).ge.1) then do i=1,proc_id_tot(0) if (proc_id_l.eq.proc_id_tot(i)) then add_xsec_to=i exit endif enddo endif if (add_xsec_to.eq.-1) then proc_id_tot(0)=proc_id_tot(0)+1 if (proc_id_tot(0).gt.100) then write (,) 'ERROR, too many separate processes' $ ,proc_id_tot(0) stop endif proc_id_tot(proc_id_tot(0))=proc_id_l xsec(proc_id_tot(0))=xsec_readxsecfrac xerr(proc_id_tot(0))=xerr_read2xsecfrac else xsec(add_xsec_to)=xsec(add_xsec_to)+xsec_readxsecfrac xerr(add_xsec_to)=xerr(add_xsec_to)+xerr_read2xsecfrac endif xsecABS=xsecABS + xsecABS_readxsecfrac enddo 22 continue do i=1,proc_id_tot(0) xerr(i)=sqrt(xerr(i)) enddo rewind(unit10) return 998 continue write (,*) 'Error, results file',results_file $ ,' not found or not the correct format.' stop end	Template/NLO/SubProcesses/collect_events.f
subroutine corrpos(ctimestp,rc) include 'globals.h' character(len=) :: rc integer :: i,p,k,ctimestp() real dt2,rcsign,acceff,dt if(rc.NE.'sync'.AND.rc.NE.'desync') & call terror('unknown sync option in corrpos') if(rc.EQ.'sync') then if(syncflag.EQ.0) return syncflag=0 rcsign=-1. if(verbosity.GT.0) print,'<corrpos> sync' endif if(rc.EQ.'desync') then if(syncflag.EQ.1) return syncflag=1 rcsign=1. if(verbosity.GT.0) print,'<corrpos> desync' endif ppropcount=ppropcount+1 if(.not.periodic) then do k=1,ndim do i=1,npactive p=pactive(i) dt2=(dtime/2(ctimestp(p)-1))2 pos(p,k)=pos(p,k)+rcsignacc(p,k)dt2/8. enddo enddo else do k=1,ndim do i=1,npactive p=pactive(i) dt2=(dtime/2(ctimestp(p)-1))2 pos(p,k)=pos(p,k)+rcsignacc(p,k)dt2/8. if(pos(p,k).GE.hboxsize) pos(p,k)=pos(p,k)-pboxsize if(pos(p,k).LT.-hboxsize) pos(p,k)=pos(p,k)+pboxsize enddo enddo endif end subroutine subroutine steppos include 'globals.h' integer i,ib,p,k,nkeep real acceff,distance,csdtime ppropcount=ppropcount+1 if(.not.periodic) then do k=1,ndim do p=1,nbodies pos(p,k)=pos(p,k)+vel(p,k)tsteppos enddo enddo else do k=1,ndim do p=1,nbodies pos(p,k)=pos(p,k)+vel(p,k)tsteppos if(pos(p,k).GE.hboxsize) pos(p,k)=pos(p,k)-pboxsize if(pos(p,k).LT.-hboxsize) pos(p,k)=pos(p,k)+pboxsize enddo enddo endif tpos=tpos+tsteppos tnow=tpos end subroutine subroutine stepvel include 'globals.h' integer p,k,i real acceff,vfac1now,vfac2now,dt,go,maxacc ! adhoc acc limiter k=0 if(usesph) then do i=1,nsphact p=pactive(i) acceff=sqrt(sum(acc(p,1:3)2)) maxacc=tstepcrit2hsmooth(p)(2(itimestp(p)-1)/dtime)2 if(acceff.GT.maxacc) then k=k+1 acc(p,1:3)=acc(p,1:3)/acceffmaxacc endif enddo endif if(k.GT.0.AND.(verbosity.GT.0).OR.k.GT.0.001nsph) & print,' > acc limiter',tnow,k ! do k=1,ndim do i=1,npactive p=pactive(i) vel(p,k)=vel(p,k)+acc(p,k)dtime/2(itimestp(p)-1) enddo enddo do i=1,npactive p=pactive(i) tvel(p)=tvel(p)+dtime/2(itimestp(p)-1) if(ABS(tvel(p)-tnow).gt.dtime/2*(itimestp(p)-1)) then print,p,tvel(p),tnow,itimestp(p),npactive call terror(' stepvel error: tvel mismatch') endif enddo end subroutine subroutine zeroacc include 'globals.h' acc(pactive(1:npactive),1:3)=0. end subroutine subroutine zeropot include 'globals.h' phi(pactive(1:npactive))=0. phiext(pactive(1:npactive))=0. if(npactive.EQ.nbodies) esofttot=0.0 end subroutine subroutine vextrap include 'globals.h' integer p,k do k=1,ndim do p=1,nsph veltpos(p,k)=vel(p,k)+acc(p,k)(tnow-tvel(p)) enddo enddo end subroutine subroutine allethdot include 'globals.h' if(.NOT.consph) then call terror(' non conservative TBD') ! if(sph_visc.EQ.'sphv') call omp_ethdotcv(pc) ! if(sph_visc.EQ.'bulk') call omp_ethdotbv(pc) ! if(sph_visc.EQ.'sph ') call omp_ethdot(pc) else ! if(sph_visc.EQ.'sph ') call omp_ethdotco(pc) if(sph_visc.EQ.'bulk') call terror(' allethdot error') if(sph_visc.EQ.'sphv') call terror(' allethdot error') endif end subroutine subroutine allentdot include 'globals.h' if(sph_visc.EQ.'sph ') call omp_entdot if(sph_visc.EQ.'bulk') call terror(' allentdot error') if(sph_visc.EQ.'sphv') call terror(' allentdot error') end subroutine subroutine allaccsph include 'globals.h' if(.NOT.consph) then call terror(' non conservative TBD') ! if(sph_visc.EQ.'sphv') call omp_accsphcv ! if(sph_visc.EQ.'bulk') call omp_accsphbv ! if(sph_visc.EQ.'sph ') call omp_accsph else if(sph_visc.EQ.'sph ') call omp_accsphco if(sph_visc.EQ.'bulk') call terror(' allaccsph error') if(sph_visc.EQ.'sphv') call terror(' allaccsph error') endif end subroutine subroutine alldentacc include 'globals.h' if(.NOT.consph) then call terror(' non conservative TBD') ! if(sph_visc.EQ.'sphv') call omp_accsphcv ! if(sph_visc.EQ.'bulk') call omp_accsphbv ! if(sph_visc.EQ.'sph ') call omp_accsph else if(sph_visc.EQ.'sph ') call omp_entdotaccsphco if(sph_visc.EQ.'bulk') call terror(' allaccsph error') if(sph_visc.EQ.'sphv') call terror(' allaccsph error') endif end subroutine subroutine alldethacc include 'globals.h' if(.NOT.consph) then call terror(' dethacc TBD ') ! if(sph_visc.EQ.'sphv') call omp_accsphcv ! if(sph_visc.EQ.'bulk') call omp_accsphbv ! if(sph_visc.EQ.'sph ') call omp_accsph else if(sph_visc.EQ.'sph ') call omp_ethdotaccsphco if(sph_visc.EQ.'bulk') call terror(' allaccsph error') if(sph_visc.EQ.'sphv') call terror(' allaccsph error') endif end subroutine subroutine stepsph include 'globals.h' integer i,j,npnear,p call makesphtree if(hupdatemethod.NE.'mass') then call terror('TBD: hupdate=mass') ! call omp_stepnear !change to hsmcal ! call omp_density !easychange ! call veldisp ! lesseasy else call densnhsmooth endif ! call update_reduction !!!!!! not so urgent ! quick fix: (not parallelized) call tree_reduction(root,incells,'sph ') if(nbh.GT.0) call blackholes if(nstar+nbh.GT.0) call mech_feedback if(nsphact.EQ.0) return if(.NOT.isotherm) then if(.NOT.uentropy) then call allethdot call exstep2(1) call alldethacc call exstep2(2) else call allentdot ! entdot is 2x faster than accsph call exstep2(1) call alldentacc ! call allentdot call exstep2(2) endif call exstep2(3) else call alldethacc endif end subroutine subroutine step include 'globals.h' integer itime itime=0 do while(itime.LT.2max_tbin) call setrnd() if(starform.and.nsph.gt.0) then if(verbosity.GT.0) print,'<stepsys> starform...' call newstar endif if(nbh.gt.0) then if(verbosity.GT.0) print,'<stepsys> bh mergers...' call bhmergers endif if(verbosity.GT.0) print,'<stepsys> partremoval1...' call partremoval if(verbosity.GT.0) print,'<stepsys> timestep..' call timestep(itime) if(verbosity.GT.0) print,'<stepsys> steppos..' call steppos ! note that particles are not removed in clean, just set to zero mass ! - we have moved this from before partremoval. all routines should be ! 'zero-mass-safe' if(verbosity.GT.0) print,'<stepsys> clean...' call clean ! if(verbosity.GT.0) print,'<stepsys> cosmo...' !TBD if(usesph.and.radiate) call cosmicray if(usesph) then if(verbosity.GT.0) print,'<stepsys> extrapolate..' call vextrap call extrapethrho endif if(npactive.gt.0) then if(verbosity.GT.0) print,'<stepsys> gravity..' call zeroacc call gravity('acc ') endif if((starform.or.radiate)) then if(verbosity.GT.0) print,'<stepsys> starevolv..' call starevolv endif if(usesph.and.nsphact.gt.0.and.radiate) then if(verbosity.GT.0) print,'<stepsys> fuvflux..' call zerofuv call fuvflux endif if(usesph.and.radiate) then if(verbosity.GT.0) print,'<stepsys> molecules...' call molecules endif if(usesph) then if(verbosity.GT.0) print,'<stepsys> stepsph..' call stepsph endif if(npactive.GT.0) then if(verbosity.GT.0) print,'<stepsys> stepvel..' ! if(sphfiltr.and.usesph.and.nsphact.gt.0) call vfilter tbd call stepvel endif enddo if(verbosity.GT.0) print,'<stepsys> partremoval2...' call partremoval if(verbosity.GT.0) print,'<stepsys> nbodies,nsph,nstar:',nbodies,nsph,nstar if(sortpart) then if(verbosity.GT.0) print,'<stepsys> sorting...' if(sortpart) call mortonsort endif end subroutine subroutine stepsystem(n) include 'globals.h' integer n ! for AMUSE ! reset the record of the removed ids nremovals = 0 ! --- call step print,'<stepsystem> step completed:',n call outstate(n) end subroutine	src/amuse/community/fi/src/stepsystem.f90
! ################################################################### ! Copyright (c) 2019-2020, Marc De Graef Research Group/Carnegie Mellon University ! All rights reserved. ! ! Redistribution and use in source and binary forms, with or without modification, are ! permitted provided that the following conditions are met: ! ! - Redistributions of source code must retain the above copyright notice, this list ! of conditions and the following disclaimer. ! - Redistributions in binary form must reproduce the above copyright notice, this ! list of conditions and the following disclaimer in the documentation and/or ! other materials provided with the distribution. ! - Neither the names of Marc De Graef, Carnegie Mellon University nor the names ! of its contributors may be used to endorse or promote products derived from ! this software without specific prior written permission. ! ! THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" ! AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE ! IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ! ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE ! LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL ! DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR ! SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER ! CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, ! OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE ! USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. ! ################################################################### !-------------------------------------------------------------------------- ! EMsoft:xrd.f90 !-------------------------------------------------------------------------- ! ! MODULE: xrd ! !> @author Marc De Graef, Carnegie Mellon University ! !> @brief Basic routines for XRD computations ! !> @date 07/30/19 MDG 1.0 original version !-------------------------------------------------------------------------- module xrdmod use local contains !-------------------------------------------------------------------------- ! ! SUBROUTINE: getXRDwavenumber ! !> @author Marc De Graef, Carnegie Mellon University ! !> @brief return the x-ray wave number for a given accelerating voltage ! !> @param kV accelerating voltage of x-ray tube (in kV, obviously) ! !> @date 07/30/19 MDG 1.0 original !-------------------------------------------------------------------------- recursive function getXRDwavenumber(kV) result(wavenumber) !DEC$ ATTRIBUTES DLLEXPORT :: getXRDwavenumber IMPLICIT NONE real(kind=sgl),INTENT(IN) :: kV real(kind=sgl) :: wavenumber wavenumber = kV / 1.23984193 ! in nm end function getXRDwavenumber end module xrdmod	Source/EMsoftLib/xrd.f90
program main use, intrinsic :: iso_fortran_env use :: json_module use :: stdlib_logger use :: ex_io implicit none type(json_file) :: config_json real(real64), allocatable :: d(:, :, :) call config_json%initialize() call load_configure_file(config_json, filename="config") call construct(d, config_json) call compute_distance_function(d, config_json) call output_distance_function(d, "distance_function") call finalize(d) call config_json%destroy() end program main	app/main.f90
program t integer :: i do i = 1, 10 if (i == 5) exit print *, i end do end program t	test/output_tests/exit_out1.f90
Debats du Senat (hansard) 1ere Session, 36 e Legislature, Volume 137, Numero 111 Le mardi 16 fevrier 1999 L'honorable Gildas L. Molgat, President La reaction aux articles de presse Le resultat des premieres elections Projet de loi modificatif-Rapport du comite Projet de loi modificatif-Motion d'adoption du message des Communes-Rapport du comite Regie interne, budgets et administration Presentation du trentieme rapport du comite Presentation du trente et unieme rapport du comite Le debat sur l'envoi de troupes a l'etranger-Avis d'interpellation La reponse du gouvernement aux demandes et aux recommandations-Avis d'interpellation Le programme d'echange de pages avec la Chambre des communes La gestion du fonds-Le debut de l'envoi des bourses-La position du gouvernement L'election du leader du gouvernement par ses pairs-La position du gouvernement La Societe de developpement du Cap-Breton Avis de motion condamnant l'article du magazine Hustler concernant la ministre du Patrimoine canadien Projet de loi sur la reconnaissance des services de guerre de la marine marchande Deuxieme lecture-Suite du debat Etude du rapport du comite special-Ajournement du debat L'etat du systeme financier Etude du rapport provisoire du comite des banques et du commerce-Ajournement du debat Examen en comite plenier-Report de l'article La situation du systeme financier Les travaux du Senat Le mardi 16 fevrier 1999 La seance est ouverte a 14 heures, le President etant au fauteuil. Son Honneur le President : Au nom de tous les senateurs, je vous souhaite la bienvenue au Senat canadien. La date du Nouvel An est fixee selon le calendrier lunaire chinois. Nous entamons aujourd'hui l'annee du lapin. Les enfants et amis celibataires recoivent des lai xi des personnes mariees. Ces petites enveloppes rouges contiennent de l'argent, en guise de bonne fortune. Les personnes qui les consomment verront leurs voeux se realiser.	data/Hansard/Training/hansard.36.1.senate.debates.1999-02-16.111.f
subroutine gg_hZZ_tb(p,msq) implicit none c--- Author: J. M. Campbell, September 2013 c--- Matrix element squared for gg -> H -> ZZ signal process c--- The exact result for massive bottom and top quark loops is included include 'constants.f' include 'ewcouple.f' include 'qcdcouple.f' include 'qlfirst.f' include 'interference.f' integer h1,h2,h34,h56 double precision p(mxpart,4),msq(fn:nf,fn:nf),msqgg,fac, & pswap(mxpart,4),oprat double complex ggH_bquark(2,2,2,2),ggH_tquark(2,2,2,2),Ahiggs, & ggH_bquark_swap(2,2,2,2),ggH_tquark_swap(2,2,2,2),Ahiggs_swap double complex ggH2_bquark(2,2,2,2),ggH2_tquark(2,2,2,2), & ggH2_bquark_swap(2,2,2,2),ggH2_tquark_swap(2,2,2,2) if (qlfirst) then qlfirst=.false. call qlinit endif msq(:,:)=0d0 call getggHZZamps(p,ggH_bquark,ggH_tquark) call getggH2ZZamps(p,ggH2_bquark,ggH2_tquark) if (interference) then c--- for interference, compute amplitudes after 4<->6 swap pswap(1,:)=p(1,:) pswap(2,:)=p(2,:) pswap(3,:)=p(3,:) pswap(4,:)=p(6,:) pswap(5,:)=p(5,:) pswap(6,:)=p(4,:) call getggHZZamps(pswap,ggH_bquark_swap,ggH_tquark_swap) call getggH2ZZamps(pswap,ggH2_bquark_swap,ggH2_tquark_swap) endif msqgg=0d0 do h1=1,2 h2=h1 do h34=1,2 do h56=1,2 c--- compute total Higgs amplitude AHiggs= & +ggH_bquark(h1,h2,h34,h56) & +ggH_tquark(h1,h2,h34,h56) & +ggH2_bquark(h1,h2,h34,h56) & +ggH2_tquark(h1,h2,h34,h56) if (interference .eqv. .false.) then c--- normal case msqgg=msqgg+cdabs(AHiggs)*2 else c--- with interference AHiggs_swap= & +ggH_bquark_swap(h1,h2,h34,h56) & +ggH_tquark_swap(h1,h2,h34,h56) & +ggH2_bquark_swap(h1,h2,h34,h56) & +ggH2_tquark_swap(h1,h2,h34,h56) if (h34 .eq. h56) then oprat=1d0-2d0dble(dconjg(AHiggs)AHiggs_swap) & /(cdabs(AHiggs)2+cdabs(AHiggs_swap)2) else oprat=1d0 endif msqgg=msqgg+cdabs(AHiggs)2oprat & +cdabs(AHiggs_swap)*2oprat endif enddo enddo enddo c--- overall factor extracted (c.f. getggHZZamps.f) fac=aveggV(4d0esqgsq/(16d0pisq)esq)*2 msq(0,0)=msqggfac*vsymfact return end	MCFM-JHUGen/src/ZZ/gg_hzz_tb.f
!=============================================================================! subroutine resstat(res, dtl) ! ! This subroutine calculates the statistics of the residual. ! ! Note that the norm of the residual is divided by dtl ! !=============================================================================! use global use material implicit none real :: res(ndof,nx,ny), dtl(nx,ny) !$sgi distribute res(,,block), dtl(,block) real :: resnod real :: totres = 0.0d0, resfrt = 0.0d0, resmax = 0.0d0 real :: resmx(ndof) integer :: jtotrs, jresmx, numnp integer :: i, j, ixrmax, iyrmax real :: CPUl #ifdef CRAY real, save :: CPU real, external :: second #else real4, save :: CPU real4, external :: second #endif !=============================================================================! ixrmax = 0 iyrmax = 0 numnp = nx ny ! !$omp parallel do private(i,resnod,ixrmax,iyrmax) & ! !$omp& reduction(+: totres) reduction(max: resmax) do j = 1, ny do i = 1, nx resnod = ( res(1,i,j)2 + & res(2,i,j)2 + & res(3,i,j)2 + & res(4,i,j)2 + & res(5,i,j)2 ) / dtl(i,j)2 totres = totres + resnod ! resmax = max(resnod,resmax) if (resnod .gt. resmax) then resmax = resnod ixrmax = i iyrmax = j end if end do end do if (ixrmax.ne.0 .and. iyrmax.ne.0) then resmx(:) = res(:,ixrmax,iyrmax) / dtl(ixrmax,iyrmax) else resmx(:) = zero end if totres = sqrt(totres / real(numnp)) resmax = sqrt(resmax) if (resfrt .eq. zero) resfrt = totres if (totres .ne. zero) then jtotrs = int ( 10.0 * log10 ( totres / resfrt ) ) jresmx = int ( 10.0 * log10 ( resmax / totres ) ) else jtotrs = zero jresmx = zero end if !.... calculate the CPU-time if (istep.eq.0) then CPUl = zero else CPUl = second() - CPU end if CPU = second() !.... output the result write(,1000) lstep, time, Delt, cfl, totres, jtotrs, & ixrmax, iyrmax, jresmx, CPU, CPUl write(ihist,1000) lstep, time, Delt, cfl, totres, jtotrs, & ixrmax, iyrmax, jresmx, CPU, CPUl call flush(ihist) !.... this outputs the value of the maximum residual ! write(60,1010) lstep, ixrmax, iyrmax, resmx(1), resmx(2), & ! resmx(3), resmx(4), resmx(5) !.... reinitialize the variables totres = zero resmax = zero return 1000 format(1p,i6,e10.3,e10.3,e10.3,e10.3,2x,'(',i4,')',& 2x,'<',' (',i3,',',i3,') ','\|',i4,'>',e10.3,e10.3) 1010 format(3(i6,1x),5(1pe13.6,1x)) end !=============================================================================! subroutine vstat(vl, dtl) ! ! This subroutine calculates the statistics of the solution. ! !=============================================================================! use global use material implicit none real :: vl(ndof,nx,ny), dtl(nx,ny) !$sgi distribute vl(,,block), dtl(,block) real :: resnod real :: totres = 0.0d0, resfrt = 0.0d0, resmax = 0.0d0 real :: resmx(ndof) integer :: jtotrs, jresmx, numnp integer :: i, j, ixrmax, iyrmax real :: CPUl #ifdef CRAY real, save :: CPU real, external :: second #else real4, save :: CPU real4, external :: second #endif !=============================================================================! ixrmax = 0 iyrmax = 0 numnp = nx * ny ! !$omp parallel do private(i,resnod,ixrmax,iyrmax) & ! !$omp& reduction(+: totres) reduction(max: resmax) do j = 1, ny do i = 1, nx resnod = vl(1,i,j)2 + vl(2,i,j)2 + & vl(3,i,j)2 + vl(4,i,j)2 + & vl(5,i,j)*2 totres = totres + resnod ! resmax = max(resnod,resmax) if (resnod .gt. resmax) then resmax = resnod ixrmax = i iyrmax = j end if end do end do if (ixrmax.ne.0 .and. iyrmax.ne.0) then resmx(:) = vl(:,ixrmax,iyrmax) / dtl(ixrmax,iyrmax) else resmx(:) = zero end if totres = sqrt(totres / real(numnp)) resmax = sqrt(resmax) if (resfrt .eq. zero) resfrt = totres if (totres .ne. zero) then jtotrs = int ( 10.0 log10 ( totres / resfrt ) ) jresmx = int ( 10.0 * log10 ( resmax / totres ) ) else jtotrs = zero jresmx = zero end if !.... calculate the CPU-time if (istep.eq.0) then CPUl = zero else CPUl = second() - CPU end if CPU = second() !.... output the result write(,1000) lstep, time, Delt, cfl, totres, jtotrs, & jresmx, CPU, CPUl write(ihist,1000) lstep, time, Delt, cfl, totres, jtotrs, & jresmx, CPU, CPUl !!$ write(,1000) lstep, time, Delt, cfl, totres, jtotrs, & !!$ ixrmax, iyrmax, jresmx, CPU, CPUl !!$ !!$ write(ihist,1000) lstep, time, Delt, cfl, totres, jtotrs, & !!$ ixrmax, iyrmax, jresmx, CPU, CPUl call flush(ihist) !.... this outputs the value of the maximum residual ! write(60,1010) lstep, ixrmax, iyrmax, resmx(1), resmx(2), & ! resmx(3), resmx(4), resmx(5) !.... reinitialize the variables totres = zero resmax = zero return 1000 format(1p,i6,e10.3,e10.3,e10.3,e10.3,1x,'(',i4,') ',i4,e10.3,e10.3) !!$1000 format(1p,i6,e10.3,e10.3,e10.3,e10.3,2x,'(',i4,')',& !!$ 2x,'<',' (',i3,',',i3,') ','\|',i4,'>',e10.3,e10.3) 1010 format(3(i6,1x),5(1pe13.6,1x)) end	src/resstat.f90
subroutine gg_hWWgg_v(p,msq) c--- Virtual matrix element squared averaged over initial colors and spins c c g(-p1)+g(-p2)-->H --> W^- (e^-(p5)+nubar(p6)) c + W^+ (nu(p3)+e^+(p4))+g(p_iglue1=7)+g(p_iglue2=8) c c Calculation is fully analytic implicit none include 'constants.f' include 'masses.f' include 'ewcouple.f' include 'qcdcouple.f' include 'sprods_com.f' include 'zprods_com.f' include 'scheme.f' include 'nflav.f' include 'deltar.f' integer j,k,i5,i6 double precision p(mxpart,4),msq(fn:nf,fn:nf),s3456 double precision hdecay,Asq,fac double precision qrqr,qarb,aqbr,abab,qbra,bqar double precision qaqa,aqaq,qqqq,aaaa double precision qagg,aqgg,qgqg,gqqg,agag,gaag,ggqa double precision gggg double precision Hqarbvsqanal double precision Hqaqavsqanal double precision HAQggvsqanal double precision Hggggvsqanal logical CheckEGZ common/CheckEGZ/CheckEGZ !$omp threadprivate(/CheckEGZ/) parameter(i5=7,i6=8) C************************************************* scheme='dred' C************************************************* if (scheme .eq. 'dred') then deltar=0d0 elseif (scheme .eq. 'tH-V') then deltar=1d0 else write(6,) 'Invalid scheme in gg_hgg_v.f' stop endif c--- Set this to true to check squared matrix elements against c--- hep-ph/0506196 using the point specified in Eq. (51) CheckEGZ=.false. c--- Set up spinor products call spinoru(i6,p,za,zb) Asq=(as/(3d0pi))2/vevsq C Deal with Higgs decay to WW s3456=s(3,4)+s(3,5)+s(3,6)+s(4,5)+s(4,6)+s(5,6) hdecay=gwsq3wmass2s(3,5)s(6,4) hdecay=hdecay/(((s3456-hmass2)2+(hmasshwidth)*2) . ((s(3,4)-wmass2)2+(wmasswwidth)2) . ((s(5,6)-wmass2)2+(wmasswwidth)2)) Asq=(as/(3d0pi))*2/vevsq fac=ason2piAsqgsq2hdecay c--- for checking EGZ if (CheckEGZ) then call CheckEGZres endif c--- for checking scheme dependence of amplitudes c call CheckScheme(1,2,i5,i6) C--- Note that Hqarbvsqanal(1,2,i5,i6)=Hqarbvsqanal(i6,i5,2,1) C--- and the basic process is q(-ki6)+r(-k2)-->q(-k5)+r(-k1) c--- FOUR-QUARK PROCESSES WITH NON-IDENTICAL QUARKS C---quark-quark C q(1)+r(2)->q(i5)+r(i6) qrqr=Hqarbvsqanal(i6,2,i5,1) C----quark-antiquark annihilation (i6-->i5-->2-->i6) wrt q(1)+r(2)->q(i5)+r(i6) c q(1)+a(2)->r(i5)+b(i6) qarb=Hqarbvsqanal(i5,i6,2,1) C----antiquark-quark annihilation (1<-->2, i5<-->6) wrt to the above c a(1)+q(2)->b(i5)+r(i6) c aqbr=Hqarbvsqanal(i6,i5,1,2) aqbr=qarb C----quark-antiquark scattering (i6<-->2) wrt q(1)+r(2)->q(i5)+r(i6) c q(1)+b(2)->r(i5)+a(i6) qbra=Hqarbvsqanal(2,i6,i5,1) C----antiquark-quark scattering c b(1)+q(2)->a(i5)+r(i6) (1<-->2, i5<-->i6) wrt to the above c bqar=Hqarbvsqanal(1,i5,i6,2) bqar=qbra C---antiquark-antiquark scattering (1<-->i5,2<-->i6) wrt q(1)+r(2)->q(i5)+r(i6) C a(1)+b(2)->a(i5)+b(i6) abab=Hqarbvsqanal(2,i6,1,i5) C--- FOUR-QUARK PROCESSES WITH IDENTICAL QUARKS C q(1)+q(2)->q(i5)+q(i6) qqqq=qrqr+Hqarbvsqanal(i5,2,i6,1)+Hqaqavsqanal(i6,2,i5,1) C a(1)+a(2)->a(i5)+a(i6) (1<-->i5,2<-->i6) wrt q(1)+q(2)->q(i5)+q(i6) aaaa=abab+Hqarbvsqanal(2,i5,1,i6)+Hqaqavsqanal(2,i6,1,i5) C q(1)+a(2)->q(i5)+a(i6) (2<-->i6) wrt q(1)+q(2)->q(i5)+q(i6) qaqa=qbra+qarb+Hqaqavsqanal(2,i6,i5,1) C a(1)+q(2)->a(i5)+q(i6) (1<-->2, i5<-->i6) wrt the above C aqqa=qbra+qarb+Hqaqavsqanal(1,i5,i6,2) aqaq=qaqa c--- TWO-QUARK, TWO GLUON PROCESSES C a(1)+q(2)->g(3)+g(4) aqgg=+HAQggvsqanal(2,1,i5,i6) C q(1)+g(2)->q(i5)+g(i6) qgqg=+HAQggvsqanal(1,i5,2,i6) C g(1)+q(2)->q(i5)+g(i6) gqqg=+HAQggvsqanal(2,i5,1,i6) C a(1)+g(2)->a(i5)+g(i6) c agag=+HAQggvsqanal(i5,1,2,i6) agag=qgqg C g(1)+a(2)->a(i5)+g(i6) c gaag=+HAQggvsqanal(i5,2,1,i6) gaag=gqqg C g(1)+g(2)->q(i5)+a(i6) ggqa=+HAQggvsqanal(i6,i5,1,2) C q(1)+a(2)->g(i5)+g(i6) c qagg=+HAQggvsqanal(1,2,i5,i6) qagg=aqgg c--- FOUR GLUON PROCESS gggg=+Hggggvsqanal(1,2,i5,i6) C--- DEBUGGING OUTPUT C write(6,) 'qrqr',qrqr C write(6,) 'qarb',qarb C write(6,) 'aqrb',aqrb C write(6,) 'abab',abab C write(6,) 'qbra',qbra C write(6,) 'bqra',bqra C write(6,) 'Identical' C write(6,) 'qaqa',qaqa C write(6,) 'aqqa',aqqa C write(6,) 'qqqq',qqqq C write(6,) 'aaaa',aaaa do j=-nf,nf do k=-nf,nf msq(j,k)=0d0 if ((j.eq.0).and.(k.eq.0)) then C---gg - all poles cancelled msq(j,k)=facavegg(halfgggg+dfloat(nflav)ggqa) elseif ((j.gt.0).and.(k.gt.0)) then C---qq - all poles cancelled if (j.eq.k) then msq(j,k)=aveqqfachalfqqqq else msq(j,k)=aveqqfacqrqr endif elseif ((j.lt.0).and.(k.lt.0)) then C---aa - all poles cancelled if (j.eq.k) then msq(j,k)=aveqqfachalfaaaa else msq(j,k)=aveqqfacabab endif elseif ((j.gt.0).and.(k.lt.0)) then C----qa scattering - all poles cancelled if (j.eq.-k) then msq(j,k)=aveqqfac(dfloat(nflav-1)qarb+qaqa+halfqagg) else msq(j,k)=aveqqfacqbra endif elseif ((j.lt.0).and.(k.gt.0)) then C----aq scattering - all poles cancelled if (j.eq.-k) then msq(j,k)=aveqqfac(dfloat(nflav-1)aqbr+aqaq+halfaqgg) else msq(j,k)=aveqqfacbqar endif elseif ((j.eq.0).and.(k.gt.0)) then C----gq scattering - all poles cancelled msq(j,k)=aveqgfacgqqg elseif ((j.eq.0).and.(k.lt.0)) then C----ga scattering - all poles cancelled msq(j,k)=aveqgfacgaag elseif ((j.gt.0).and.(k.eq.0)) then C----qg scattering - all poles cancelled msq(j,k)=aveqgfacqgqg elseif ((j.lt.0).and.(k.eq.0)) then C----ag scattering - all poles cancelled msq(j,k)=aveqgfac*agag endif enddo enddo return end	MCFM-JHUGen/src/ggHggvirt/gg_hWWgg_v.f
Intro What is Jalapeño Water? On October 9, 2010 during lunch at the Oxford Circle Dining Commons Cuarto Dining Commons, there was a great discovery: The Jalapeño Cilantro Infused Water (Jalapeño Water for short). It was the most amazing beverage ever. When you drink it, it feels and tastes just like water. But once it is swallowed, you get the awesome jalapeño burn and the best part is the only thing to wash the burn down with is more jalapeño water, unless you get some other drink (but what’s the fun in that). Basically what happens is jalapeños are sliced and allowed to sit in water. During this time, the capsaicin (the chemical that gives the burn) dissolves off the seeds of the jalapeños and into the water ready to burn any tissue it comes in contact with. The Conspiracy Since then the Jalapeño water has yet to return to the dining commons and only lives on in the stories told by its admirers. Many comment cards have been filled out at the Oxford Circle Dining Commons Cuarto Dining Commons saying things such as Jalapeño Water! Where did it go? and What happened to the Jalapeño Water? I love that stuff,” but still no sight of any return. The comment cards mentioning the Jalapeño water also all seem to disappear and never end up on the board with responses like all the other comment cards. It was sighted on April 12, 2011 someone taking a jalapeño water comment card to the table where they respond to them, but the card was never seen again. Where do they go? The only logical explanation is that it is all part of a conspiracy to keep the students that visit the dining commons from enjoying a good beverage and keeping the food as nonspicy as possible (has anyone ever found a dish at the dining commons with the slightest bit of heat?). Current Actions At late night on April 12, 2011, students informed the dining common staff that they aware of the conspiracy through a comment card (which also disappeared with no response) and will continue to write the comment cards inquiring about the Jalapeño Water until a response is received and it becomes a regular beverage available multiple times a week at the dining commons. End of the Conspiracy On April 13, 2011 (which just happened to be the day this page was created, coincidence?) the conspiracy ended at dinner when two of the Jalapeño Water comment cards were seen with responses on the comment board, one being the one where the dining common staff was informed students knew about the conspiracy. One response explained that they rotated the flavors of infused water and that since the Jalapeño one was not very popular (why not?), it wasnt rotated in often. How about never? The second one said to prepare our palates for a new infused water with chilies and citrus. So now students wait for the new chili and citrus water and hope it is as amazing as the legendary Jalapeño Water. Update On April 17, 2011, the Cuarto Dining Commons unveiled the Jalapino Citrus infused water for us Jalapeño Water lovers. It was the biggest disappointment ever! Correct me if Im wrong, but Im pretty sure there is no such thing as a Jalapino (even Google corrects it to Jalapeño and its not recognized by spell check). Maybe it was a typo, but the peppers were red (the color of an over ripe Jalapeño). Worst of all, the peppers (whatever they were) were not even cut open, so the burn causing chemicals didnt dissolve into the water. This water gave no burn whatsoever. Lastly, the dispenser was going extremely slowly, so you couldnt even really get much. Nice try Cuarto DC, but this is not what we were promised when we were told to prepare our pallets. Come on DC, whats going on? Your community wants to know Query: was this a contamination issue? Urban legend? Salsainwater? Condiment peppers in water? Back in the day, the Tercero DC commentboard used to get requests for more hotdogs on Sundays, guaranteed canned pineapples on the salad bar, rotten produce in prepacked sandwichesa mixture of goofy and serious issues. I cant tell what this is, but it seems like management would assume its simply an inside joke. Response to the community This is not an inside joke and all the events described above are true and actually occurred. The dining commons intentionally put this out one day as one of their infused waters. I have a picture on my phone of the label/sign that I am working to put on the site (yes I was so excited that I took a picture). Response from the community Dear college students who get the pleasure of the DC, its not that hard to make infused water.. Cucumber water is delicious, so is Jalap/Hab/others fruits/veggies water. Slice, let sit, drink! Find out how long you like to let it sit, 24 hours is good, but it will have the taste by 12. 4872+ hour cucumber water gets so deliciously cucumbery. Experiment with it and have fun	lab/davisWiki/Jalape%C3%B1o_Water_Conspiracy.f

SUBROUTINE SLAEIN( RIGHTV, NOINIT, N, H, LDH, WR, WI, VR, VI, B, $ LDB, WORK, EPS3, SMLNUM, BIGNUM, INFO ) * * -- LAPACK auxiliary routine (instrumented to count operations) -- * Univ. of Tennessee, Univ. of California Berkeley, NAG Ltd., * Courant Institute, Argonne National Lab, and Rice University * September 30, 1994 * * .. Scalar Arguments .. LOGICAL NOINIT, RIGHTV INTEGER INFO, LDB, LDH, N REAL BIGNUM, EPS3, SMLNUM, WI, WR * .. * .. Array Arguments .. REAL B( LDB, * ), H( LDH, * ), VI( * ), VR( * ), $ WORK( * ) * .. * Common block to return operation count. * .. Common blocks .. COMMON / LATIME / OPS, ITCNT * .. * .. Scalars in Common .. REAL ITCNT, OPS * .. * * Purpose * ======= * * SLAEIN uses inverse iteration to find a right or left eigenvector * corresponding to the eigenvalue (WR,WI) of a real upper Hessenberg * matrix H. * * Arguments * ========= * * RIGHTV (input) LOGICAL * = .TRUE. : compute right eigenvector; * = .FALSE.: compute left eigenvector. * * NOINIT (input) LOGICAL * = .TRUE. : no initial vector supplied in (VR,VI). * = .FALSE.: initial vector supplied in (VR,VI). * * N (input) INTEGER * The order of the matrix H. N >= 0. * * H (input) REAL array, dimension (LDH,N) * The upper Hessenberg matrix H. * * LDH (input) INTEGER * The leading dimension of the array H. LDH >= max(1,N). * * WR (input) REAL * WI (input) REAL * The real and imaginary parts of the eigenvalue of H whose * corresponding right or left eigenvector is to be computed. * * VR (input/output) REAL array, dimension (N) * VI (input/output) REAL array, dimension (N) * On entry, if NOINIT = .FALSE. and WI = 0.0, VR must contain * a real starting vector for inverse iteration using the real * eigenvalue WR; if NOINIT = .FALSE. and WI.ne.0.0, VR and VI * must contain the real and imaginary parts of a complex * starting vector for inverse iteration using the complex * eigenvalue (WR,WI); otherwise VR and VI need not be set. * On exit, if WI = 0.0 (real eigenvalue), VR contains the * computed real eigenvector; if WI.ne.0.0 (complex eigenvalue), * VR and VI contain the real and imaginary parts of the * computed complex eigenvector. The eigenvector is normalized * so that the component of largest magnitude has magnitude 1; * here the magnitude of a complex number (x,y) is taken to be * |x| + |y|. * VI is not referenced if WI = 0.0. * * B (workspace) REAL array, dimension (LDB,N) * * LDB (input) INTEGER * The leading dimension of the array B. LDB >= N+1. * * WORK (workspace) REAL array, dimension (N) * * EPS3 (input) REAL * A small machine-dependent value which is used to perturb * close eigenvalues, and to replace zero pivots. * * SMLNUM (input) REAL * A machine-dependent value close to the underflow threshold. * * BIGNUM (input) REAL * A machine-dependent value close to the overflow threshold. * * INFO (output) INTEGER * = 0: successful exit * = 1: inverse iteration did not converge; VR is set to the * last iterate, and so is VI if WI.ne.0.0. * * ===================================================================== * * .. Parameters .. REAL ZERO, ONE, TENTH PARAMETER ( ZERO = 0.0E+0, ONE = 1.0E+0, TENTH = 1.0E-1 ) * .. * .. Local Scalars .. CHARACTER NORMIN, TRANS INTEGER I, I1, I2, I3, IERR, ITS, J REAL ABSBII, ABSBJJ, EI, EJ, GROWTO, NORM, NRMSML, $ OPST, REC, ROOTN, SCALE, TEMP, VCRIT, VMAX, $ VNORM, W, W1, X, XI, XR, Y * .. * .. External Functions .. INTEGER ISAMAX REAL SASUM, SLAPY2, SNRM2 EXTERNAL ISAMAX, SASUM, SLAPY2, SNRM2 * .. * .. External Subroutines .. EXTERNAL SLADIV, SLATRS, SSCAL * .. * .. Intrinsic Functions .. INTRINSIC ABS, MAX, REAL, SQRT * .. * .. Executable Statements .. * INFO = 0 *** * Initialize OPST = 0 *** * * GROWTO is the threshold used in the acceptance test for an * eigenvector. * ROOTN = SQRT( REAL( N ) ) GROWTO = TENTH / ROOTN NRMSML = MAX( ONE, EPS3*ROOTN )*SMLNUM *** * Increment op count for computing ROOTN, GROWTO and NRMSML OPST = OPST + 4 *** * * Form B = H - (WR,WI)*I (except that the subdiagonal elements and * the imaginary parts of the diagonal elements are not stored). * DO 20 J = 1, N DO 10 I = 1, J - 1 B( I, J ) = H( I, J ) 10 CONTINUE B( J, J ) = H( J, J ) - WR 20 CONTINUE *** OPST = OPST + N *** * IF( WI.EQ.ZERO ) THEN * * Real eigenvalue. * IF( NOINIT ) THEN * * Set initial vector. * DO 30 I = 1, N VR( I ) = EPS3 30 CONTINUE ELSE * * Scale supplied initial vector. * VNORM = SNRM2( N, VR, 1 ) CALL SSCAL( N, ( EPS3*ROOTN ) / MAX( VNORM, NRMSML ), VR, $ 1 ) *** OPST = OPST + ( 3*N+2 ) *** END IF * IF( RIGHTV ) THEN * * LU decomposition with partial pivoting of B, replacing zero * pivots by EPS3. * DO 60 I = 1, N - 1 EI = H( I+1, I ) IF( ABS( B( I, I ) ).LT.ABS( EI ) ) THEN * * Interchange rows and eliminate. * X = B( I, I ) / EI B( I, I ) = EI DO 40 J = I + 1, N TEMP = B( I+1, J ) B( I+1, J ) = B( I, J ) - X*TEMP B( I, J ) = TEMP 40 CONTINUE ELSE * * Eliminate without interchange. * IF( B( I, I ).EQ.ZERO ) $ B( I, I ) = EPS3 X = EI / B( I, I ) IF( X.NE.ZERO ) THEN DO 50 J = I + 1, N B( I+1, J ) = B( I+1, J ) - X*B( I, J ) 50 CONTINUE END IF END IF 60 CONTINUE IF( B( N, N ).EQ.ZERO ) $ B( N, N ) = EPS3 *** * Increment op count for LU decomposition OPS = OPS + ( N-1 )*( N+1 ) *** * TRANS = 'N' * ELSE * * UL decomposition with partial pivoting of B, replacing zero * pivots by EPS3. * DO 90 J = N, 2, -1 EJ = H( J, J-1 ) IF( ABS( B( J, J ) ).LT.ABS( EJ ) ) THEN * * Interchange columns and eliminate. * X = B( J, J ) / EJ B( J, J ) = EJ DO 70 I = 1, J - 1 TEMP = B( I, J-1 ) B( I, J-1 ) = B( I, J ) - X*TEMP B( I, J ) = TEMP 70 CONTINUE ELSE * * Eliminate without interchange. * IF( B( J, J ).EQ.ZERO ) $ B( J, J ) = EPS3 X = EJ / B( J, J ) IF( X.NE.ZERO ) THEN DO 80 I = 1, J - 1 B( I, J-1 ) = B( I, J-1 ) - X*B( I, J ) 80 CONTINUE END IF END IF 90 CONTINUE IF( B( 1, 1 ).EQ.ZERO ) $ B( 1, 1 ) = EPS3 *** * Increment op count for UL decomposition OPS = OPS + ( N-1 )*( N+1 ) *** * TRANS = 'T' * END IF * NORMIN = 'N' DO 110 ITS = 1, N * * Solve U*x = scale*v for a right eigenvector * or U'*x = scale*v for a left eigenvector, * overwriting x on v. * CALL SLATRS( 'Upper', TRANS, 'Nonunit', NORMIN, N, B, LDB, $ VR, SCALE, WORK, IERR ) *** * Increment opcount for triangular solver, assuming that * ops SLATRS = ops STRSV, with no scaling in SLATRS. OPS = OPS + N*N *** NORMIN = 'Y' * * Test for sufficient growth in the norm of v. * VNORM = SASUM( N, VR, 1 ) *** OPST = OPST + N *** IF( VNORM.GE.GROWTO*SCALE ) $ GO TO 120 * * Choose new orthogonal starting vector and try again. * TEMP = EPS3 / ( ROOTN+ONE ) VR( 1 ) = EPS3 DO 100 I = 2, N VR( I ) = TEMP 100 CONTINUE VR( N-ITS+1 ) = VR( N-ITS+1 ) - EPS3*ROOTN *** OPST = OPST + 4 *** 110 CONTINUE * * Failure to find eigenvector in N iterations. * INFO = 1 * 120 CONTINUE * * Normalize eigenvector. * I = ISAMAX( N, VR, 1 ) CALL SSCAL( N, ONE / ABS( VR( I ) ), VR, 1 ) *** OPST = OPST + ( 2*N+1 ) *** ELSE * * Complex eigenvalue. * IF( NOINIT ) THEN * * Set initial vector. * DO 130 I = 1, N VR( I ) = EPS3 VI( I ) = ZERO 130 CONTINUE ELSE * * Scale supplied initial vector. * NORM = SLAPY2( SNRM2( N, VR, 1 ), SNRM2( N, VI, 1 ) ) REC = ( EPS3*ROOTN ) / MAX( NORM, NRMSML ) CALL SSCAL( N, REC, VR, 1 ) CALL SSCAL( N, REC, VI, 1 ) *** OPST = OPST + ( 6*N+5 ) *** END IF * IF( RIGHTV ) THEN * * LU decomposition with partial pivoting of B, replacing zero * pivots by EPS3. * * The imaginary part of the (i,j)-th element of U is stored in * B(j+1,i). * B( 2, 1 ) = -WI DO 140 I = 2, N B( I+1, 1 ) = ZERO 140 CONTINUE * DO 170 I = 1, N - 1 ABSBII = SLAPY2( B( I, I ), B( I+1, I ) ) EI = H( I+1, I ) IF( ABSBII.LT.ABS( EI ) ) THEN * * Interchange rows and eliminate. * XR = B( I, I ) / EI XI = B( I+1, I ) / EI B( I, I ) = EI B( I+1, I ) = ZERO DO 150 J = I + 1, N TEMP = B( I+1, J ) B( I+1, J ) = B( I, J ) - XR*TEMP B( J+1, I+1 ) = B( J+1, I ) - XI*TEMP B( I, J ) = TEMP B( J+1, I ) = ZERO 150 CONTINUE B( I+2, I ) = -WI B( I+1, I+1 ) = B( I+1, I+1 ) - XI*WI B( I+2, I+1 ) = B( I+2, I+1 ) + XR*WI *** OPST = OPST + ( 4*( N-I )+6 ) *** ELSE * * Eliminate without interchanging rows. * IF( ABSBII.EQ.ZERO ) THEN B( I, I ) = EPS3 B( I+1, I ) = ZERO ABSBII = EPS3 END IF EI = ( EI / ABSBII ) / ABSBII XR = B( I, I )*EI XI = -B( I+1, I )*EI DO 160 J = I + 1, N B( I+1, J ) = B( I+1, J ) - XR*B( I, J ) + $ XI*B( J+1, I ) B( J+1, I+1 ) = -XR*B( J+1, I ) - XI*B( I, J ) 160 CONTINUE B( I+2, I+1 ) = B( I+2, I+1 ) - WI *** OPST = OPST + ( 7*( N-I )+4 ) *** END IF * * Compute 1-norm of offdiagonal elements of i-th row. * WORK( I ) = SASUM( N-I, B( I, I+1 ), LDB ) + $ SASUM( N-I, B( I+2, I ), 1 ) *** OPST = OPST + ( 2*( N-I )+4 ) *** 170 CONTINUE IF( B( N, N ).EQ.ZERO .AND. B( N+1, N ).EQ.ZERO ) $ B( N, N ) = EPS3 WORK( N ) = ZERO * I1 = N I2 = 1 I3 = -1 ELSE * * UL decomposition with partial pivoting of conjg(B), * replacing zero pivots by EPS3. * * The imaginary part of the (i,j)-th element of U is stored in * B(j+1,i). * B( N+1, N ) = WI DO 180 J = 1, N - 1 B( N+1, J ) = ZERO 180 CONTINUE * DO 210 J = N, 2, -1 EJ = H( J, J-1 ) ABSBJJ = SLAPY2( B( J, J ), B( J+1, J ) ) IF( ABSBJJ.LT.ABS( EJ ) ) THEN * * Interchange columns and eliminate * XR = B( J, J ) / EJ XI = B( J+1, J ) / EJ B( J, J ) = EJ B( J+1, J ) = ZERO DO 190 I = 1, J - 1 TEMP = B( I, J-1 ) B( I, J-1 ) = B( I, J ) - XR*TEMP B( J, I ) = B( J+1, I ) - XI*TEMP B( I, J ) = TEMP B( J+1, I ) = ZERO 190 CONTINUE B( J+1, J-1 ) = WI B( J-1, J-1 ) = B( J-1, J-1 ) + XI*WI B( J, J-1 ) = B( J, J-1 ) - XR*WI *** OPST = OPST + ( 4*( J-1 )+6 ) *** ELSE * * Eliminate without interchange. * IF( ABSBJJ.EQ.ZERO ) THEN B( J, J ) = EPS3 B( J+1, J ) = ZERO ABSBJJ = EPS3 END IF EJ = ( EJ / ABSBJJ ) / ABSBJJ XR = B( J, J )*EJ XI = -B( J+1, J )*EJ DO 200 I = 1, J - 1 B( I, J-1 ) = B( I, J-1 ) - XR*B( I, J ) + $ XI*B( J+1, I ) B( J, I ) = -XR*B( J+1, I ) - XI*B( I, J ) 200 CONTINUE B( J, J-1 ) = B( J, J-1 ) + WI *** OPST = OPST + ( 7*( J-1 )+4 ) *** END IF * * Compute 1-norm of offdiagonal elements of j-th column. * WORK( J ) = SASUM( J-1, B( 1, J ), 1 ) + $ SASUM( J-1, B( J+1, 1 ), LDB ) *** OPST = OPST + ( 2*( J-1 )+4 ) *** 210 CONTINUE IF( B( 1, 1 ).EQ.ZERO .AND. B( 2, 1 ).EQ.ZERO ) $ B( 1, 1 ) = EPS3 WORK( 1 ) = ZERO * I1 = 1 I2 = N I3 = 1 END IF * DO 270 ITS = 1, N SCALE = ONE VMAX = ONE VCRIT = BIGNUM * * Solve U*(xr,xi) = scale*(vr,vi) for a right eigenvector, * or U'*(xr,xi) = scale*(vr,vi) for a left eigenvector, * overwriting (xr,xi) on (vr,vi). * DO 250 I = I1, I2, I3 * IF( WORK( I ).GT.VCRIT ) THEN REC = ONE / VMAX CALL SSCAL( N, REC, VR, 1 ) CALL SSCAL( N, REC, VI, 1 ) SCALE = SCALE*REC VMAX = ONE VCRIT = BIGNUM END IF * XR = VR( I ) XI = VI( I ) IF( RIGHTV ) THEN DO 220 J = I + 1, N XR = XR - B( I, J )*VR( J ) + B( J+1, I )*VI( J ) XI = XI - B( I, J )*VI( J ) - B( J+1, I )*VR( J ) 220 CONTINUE ELSE DO 230 J = 1, I - 1 XR = XR - B( J, I )*VR( J ) + B( I+1, J )*VI( J ) XI = XI - B( J, I )*VI( J ) - B( I+1, J )*VR( J ) 230 CONTINUE END IF * W = ABS( B( I, I ) ) + ABS( B( I+1, I ) ) IF( W.GT.SMLNUM ) THEN IF( W.LT.ONE ) THEN W1 = ABS( XR ) + ABS( XI ) IF( W1.GT.W*BIGNUM ) THEN REC = ONE / W1 CALL SSCAL( N, REC, VR, 1 ) CALL SSCAL( N, REC, VI, 1 ) XR = VR( I ) XI = VI( I ) SCALE = SCALE*REC VMAX = VMAX*REC END IF END IF * * Divide by diagonal element of B. * CALL SLADIV( XR, XI, B( I, I ), B( I+1, I ), VR( I ), $ VI( I ) ) VMAX = MAX( ABS( VR( I ) )+ABS( VI( I ) ), VMAX ) VCRIT = BIGNUM / VMAX *** OPST = OPST + 9 *** ELSE DO 240 J = 1, N VR( J ) = ZERO VI( J ) = ZERO 240 CONTINUE VR( I ) = ONE VI( I ) = ONE SCALE = ZERO VMAX = ONE VCRIT = BIGNUM END IF 250 CONTINUE *** * Increment op count for loop 260, assuming no scaling OPS = OPS + 4*N*( N-1 ) *** * * Test for sufficient growth in the norm of (VR,VI). * VNORM = SASUM( N, VR, 1 ) + SASUM( N, VI, 1 ) *** OPST = OPST + 2*N *** IF( VNORM.GE.GROWTO*SCALE ) $ GO TO 280 * * Choose a new orthogonal starting vector and try again. * Y = EPS3 / ( ROOTN+ONE ) VR( 1 ) = EPS3 VI( 1 ) = ZERO * DO 260 I = 2, N VR( I ) = Y VI( I ) = ZERO 260 CONTINUE VR( N-ITS+1 ) = VR( N-ITS+1 ) - EPS3*ROOTN *** OPST = OPST + 4 *** 270 CONTINUE * * Failure to find eigenvector in N iterations * INFO = 1 * 280 CONTINUE * * Normalize eigenvector. * VNORM = ZERO DO 290 I = 1, N VNORM = MAX( VNORM, ABS( VR( I ) )+ABS( VI( I ) ) ) 290 CONTINUE CALL SSCAL( N, ONE / VNORM, VR, 1 ) CALL SSCAL( N, ONE / VNORM, VI, 1 ) *** OPST = OPST + ( 4*N+1 ) *** * END IF * *** * Compute final op count OPS = OPS + OPST *** RETURN * * End of SLAEIN * END

old/lapack-test/lapack-timing/EIG/EIGSRC/slaein.f

use sim implicit none type(SeismicAnalysis_) :: seismic type(FEMDomain_),target :: cube,original type(IO_) :: f,response,history_A,history_V,history_U,input_wave type(Math_) :: math real(real64),allocatable :: disp_z(:,:) real(real64) :: wave(200,2),T,Duration,dt integer(int32) :: i,j,cases,stack_id,num_of_cases num_of_cases = 4 ! create Domain call cube%create(meshtype="Cube3D",x_num=4,y_num=4,z_num=20) call cube%resize(x=1.0d0,y=1.0d0,z=5.0d0) call cube%move(z=-5.0d0) ! create Wave T = 0.300d0 Duration = T * 10.0d0 ! sec. dt = Duration/dble(size(wave,1))!/10.0d0 wave(:,:) = 0.0d0 do i=1,size(wave,1) wave(i,1) = dt*dble(i) wave(i,2) = sin(2.0d0*math%pi/T*wave(i,1) ) enddo call input_wave%open("input_wave.txt" ) call input_wave%write(wave ) call input_wave%close() original = cube ! set domain seismic%femdomain => cube ! set wave seismic%wave = wave seismic%dt = dt ! run simulation call seismic%init() !call seismic%fixDisplacement(z_max = -4.99d0,direction="x") call seismic%fixDisplacement(z_max = -4.99d0,direction="y") call seismic%fixDisplacement(z_max = -4.99d0,direction="z") call seismic%fixDisplacement(y_max = 0.0d0,direction="y") call seismic%fixDisplacement(y_min = 1.0d0,direction="y") call seismic%fixDisplacement(direction="z") call seismic%femdomain%vtk("mesh_init" ) call seismic%loadWave(z_max=-4.50d0,direction="x",wavetype=WAVE_ACCEL) seismic%Density(:) = 17000.0d0 !(N/m/m/m) seismic%PoissonRatio(:) = 0.330d0 seismic%YoungModulus(:) = 25372853.0 !(N/m/m) Vs=121 m/s !seismic%alpha = 0.0d0 seismic%a = 0.0d0 seismic%v = 0.0d0 seismic%u = 0.0d0 do i=1,199 !seismic%beta = 0.0d0 call history_A%open("history_A"//str(i)//".txt","w") call history_V%open("history_V"//str(i)//".txt","w") call history_U%open("history_U"//str(i)//".txt","w") call seismic%run(timestep=[i,i+1],AccelLimit=10.0d0**8) do j=1,seismic%femdomain%nn() if(seismic%femdomain%position_x(j)/=0.0d0) cycle if(seismic%femdomain%position_y(j)/=0.0d0) cycle write(history_A%fh,*) real(dble(i)*dt),& seismic%femdomain%position_z(j), real(seismic%A( (j-1)*3 + 1 )) enddo do j=1,seismic%femdomain%nn() if(seismic%femdomain%position_x(j)/=0.0d0) cycle if(seismic%femdomain%position_y(j)/=0.0d0) cycle write(history_V%fh,*) real(dble(i)*dt),& seismic%femdomain%position_z(j), real(seismic%V( (j-1)*3 + 1 )) enddo do j=1,seismic%femdomain%nn() if(seismic%femdomain%position_x(j)/=0.0d0) cycle if(seismic%femdomain%position_y(j)/=0.0d0) cycle write(history_U%fh,*) real(dble(i)*dt),& seismic%femdomain%position_z(j), real(seismic%U( (j-1)*3 + 1 )) enddo call history_A%close() call history_V%close() call history_U%close() enddo !print *, maxval(seismic%U) seismic%femdomain%mesh%nodcoord = seismic%femdomain%mesh%nodcoord + (10.0d0**0)*& reshape(seismic%a, seismic%femdomain%nn(),seismic%femdomain%nd() ) call seismic%femdomain%vtk("result") !call response%open("T_A"//str(cases)//".txt") !call response%write(T,seismic%maxA(1)) !call response%close() end

Tutorial/sim/SeismicAnalysis.f90

! ! common routines for testing ! module test_common implicit none integer, parameter, public :: dp = kind(1.d0) ! Common in the test routines. character(len=*), parameter :: SAMPLE_DIR = '../samples' character(len=*), parameter :: DEF_FNAME_OUT = SAMPLE_DIR//'/test_out.txt' contains ! Print the stats info at the end of each subroutine-level testing subroutine print_teststats(subname, nsuccess, ifailed) character(*), intent(in) :: subname integer, intent(in) :: nsuccess ! Number of succesful trials, i-th failure integer, intent(in), optional :: ifailed ! i-th failure if (present(ifailed)) then write(*, '(" Tests(", a, "): Only succeeded in ", i3, " tests before failed at ", i3, "-th.")') & trim(subname), nsuccess, ifailed else write(*, '(" Tests(", a, "): Succeeded in all ", i3, " tests.")') & trim(subname), nsuccess end if end subroutine print_teststats end module test_common module test_alpin_misc_utils use alpin_unittest use alpin_err_exit use test_common use alpin_misc_utils implicit none contains ! run tests of routines in alpin_misc_utils.f90 ! ! Returns 1 if error is raised (0 otherwise) integer function run_test_alpin_misc_utils() result(ret_status) character(*), parameter :: Subname = 'run_test_alpin_misc_utils' integer, parameter :: TOT_NTESTS = 39 logical, dimension(TOT_NTESTS) :: ress integer :: iloc ret_status = 0 ! normal ends (n.b., returned value) ress = [ & assert_in_delta(180.0d0, rad2deg(PI), 1.0e5, Subname, ' rad2deg(PI)') & , assert_in_delta(PI, deg2rad(180.0d0), 1.0e5, Subname, ' deg2rad(180.0)') & , assert_equal ('00000001', dump_int_binary(1_1), Subname, 'dump_int_binary') & , assert_equal ('01111111', dump_int_binary(127_1), Subname, 'dump_int_binary') & , assert_equal ('11111111', dump_int_binary(-1_1), Subname, 'dump_int_binary') & , assert_equal (3, int4_to_unsigned1(3), Subname, 'for (3(int4=>1))') & , assert_equal(-1, int4_to_unsigned1(255), Subname, 'for (255(int4=>1))') & , assert_equal(255, unsigned1_to_int4(-1_1), Subname, 'for (255(int1=>4))') & , assert_equal ('00000000_00000000_00000000_01111111', dump_int_binary(127_4), Subname, 'dump_int_binary(127)') & , assert_equal ('00000000_00000000_00000001_01111111', dump_int_binary(383_4), Subname, 'dump_int_binary(383)') & , assert_equal ('11111111_11111111_11111111_11111111', dump_int_binary(-1_4), Subname, 'dump_int_binary(-1)') & , assert_equal('c.d', trim(basename('/a/b/c.d')), Subname, 'basename(/a/b/c.d)') & , assert_equal('c.d', trim(basename('c.d')), Subname, 'basename(c.d)') & , assert_equal('abc', trim(basename('/x/abc/')), Subname, 'basename(/x/abc/)') & , assert_equal('abc', trim(basename('/x/abc///')), Subname, 'basename(/x/abc///)') & , assert_equal('/', trim(basename('/')), Subname, 'basename(/)') & , assert_equal('/', trim(basename('//')), Subname, 'basename(//)') & , assert_equal('0', trim(ladjusted_int(0_1)), Subname, 'ladjusted_int(0_1)') & , assert_equal('-123', trim(ladjusted_int(-123_1)), Subname, 'ladjusted_int(-123_1)') & , assert_equal('-123', trim(ladjusted_int(-123_2)), Subname, 'ladjusted_int(-123_2)') & , assert_equal('-123', trim(ladjusted_int(-123_4)), Subname, 'ladjusted_int(-123_4)') & , assert_equal('-123', trim(ladjusted_int(-123_8)), Subname, 'ladjusted_int(-123_8)') & , assert_equal('-12345', trim(ladjusted_int(-12345_2)),Subname, 'ladjusted_int(-12345_2)') & , assert_equal('-123456', trim(ladjusted_int(-123456)), Subname, 'ladjusted_int(-123456)') & , assert_equal('-123456', trim(ladjusted_int(-123456)), Subname, 'ladjusted_int(-123456)') & , assert_equal('''ab'', ''cdef'', ''ghi''', join_ary(['ab ','cdef','ghi ']), Subname, 'join_ary_chars()') & , assert_equal('$ab$, $cdef$, $ghi$', join_ary(['ab ','cdef','ghi '],quote='$'), Subname, 'join_ary_chars()') & , assert_equal('-123, 4, -56', join_ary([-123, 4, -56]), Subname, 'join_ary_int4()') & , assert_equal('-123; 4; -56', join_ary([-123_2, 4_2, -56_2], '; '), Subname, 'join_ary_int2()') & , assert_equal(1, findloc1(['X','Y','X'],'X'), Subname, 'findloc1_char') & , assert_equal(3, findloc1(['X','Y','X'],'X',MASK=[.false.,.true.,.true.]), Subname, 'findloc1_char-mask') & , assert_equal(3, findloc1(['X','Y','X'],'X',BACK=.true.), Subname, 'findloc1_char-back') & , assert_equal(1, findloc1(['X','Y','X'],'X',MASK=[.true.,.true.,.false.],BACK=.true.), Subname, 'findloc1_char-ma-ba') & , assert_equal(2, findloc1([9,8,7,6],8), Subname, 'findloc1_int4') & , assert_equal(2, findloc1(int([9,8,7,6],kind=2),8), Subname, 'findloc1_int2_4') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=4),32.0), Subname, 'findloc1_real4') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=4),32.d0), Subname, 'findloc1_real4-2') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=8),32.0), Subname, 'findloc1_real8-1') & , assert_equal(2, findloc1(real([16,32,0,0,-1],kind=8),32.d0), Subname, 'findloc1_real8-2') & ] iloc = findloc1(ress, .false.) ! Similar to the standard way, but scalar: ilocs(:)=findloc(ress, .false.) if (iloc == 0) then ! All passed call print_teststats(Subname, nsuccess=TOT_NTESTS) return end if ! Failed call print_teststats(Subname, nsuccess=iloc-1, ifailed=iloc) ret_status = 1 end function run_test_alpin_misc_utils end module test_alpin_misc_utils module test_alpin_hash use alpin_unittest use alpin_err_exit use test_common use alpin_misc_utils use alpin_hash implicit none contains ! run tests of routines in alpin_misc_utils.f90 ! ! Returns 1 if error is raised (0 otherwise) integer function run_test_alpin_hash() result(ret_status) character(*), parameter :: Subname = 'run_test_alpin_hash' integer, parameter :: TOT_NTESTS = 11 logical, dimension(TOT_NTESTS) :: ress integer :: iloc type(t_alpin_hash_logical), dimension(2) :: arlogi type(t_alpin_hash_char), dimension(2) :: archar type(t_alpin_hash_int4), dimension(2) :: arint4 type(t_alpin_hash_real8), dimension(2) :: arreal8 logical, dimension(2) :: is_undef character(len=LEN_T_ALPIN_HASH), dimension(2) :: valchs ret_status = 0 ! normal ends (n.b., returned value) arlogi = [t_alpin_hash_logical(key='k1', val=.false.), t_alpin_hash_logical(key='k2', val=.true.)] archar = [t_alpin_hash_char( key='k1', val='v1'), t_alpin_hash_char( key='k2', val='v2')] arint4 = [t_alpin_hash_int4( key='k1', val=11), t_alpin_hash_int4( key='k2', val=22)] arreal8= [t_alpin_hash_real8(key='k1', val=16.0), t_alpin_hash_real8(key='k2', val=32.0)] call hashval_status('k2', archar, valchs(1), is_undef(1)) call hashval_status('naiyo', archar, valchs(2), is_undef(2)) ress = [ & assert_not(is_undef(1), Subname, ' hashval_status()-1') & , assert( is_undef(2), Subname, ' hashval_status()-2') & , assert_equal('v2', valchs(1), Subname, ' hashval_status("k2")') & , assert_equal('v2', trim(fetch_hashval('k2', archar)), Subname, ' fetch_hashval("k2")') & ! NOTE: without trim(), this causes either "malloc: *** set a breakpoint in malloc_error_break to debug" or "SIGSEGV: Segmentation fault - invalid memory reference." ! It seems that if a character as a returned value from a function is passed directly (i.e., without trim()) to a different function, it may cause a memory-related error. , assert_equal('@', trim(fetch_hashval('naiyo', archar, undef='@')), Subname, ' fetch_hashval("naiyo","@")') & , assert_equal('', trim(fetch_hashval('naiyo', archar)), Subname, ' fetch_hashval("naiyo")') & , assert_equal(22, fetch_hashval('k2', arint4), Subname, ' fetch_hashval_i4("k2")') & , assert_equal(79, fetch_hashval('naiyo', arint4, undef=79), Subname, ' fetch_hashval_i4("k2",79)') & , assert(fetch_hashval('k2', arlogi), Subname, ' fetch_hashval_logi("k2")') & , assert_in_delta(32.d0, fetch_hashval('k2', arreal8), 1e-8, Subname, ' fetch_hashval_real8("k2")') & , assert_in_delta(79.d0, fetch_hashval('naiyo', arreal8, undef=79.d0), 1e-8, Subname, ' fetch_hashval_real8("k2",79)') & ] iloc = findloc1(ress, .false.) ! Similar to the standard way, but scalar: ilocs(:)=findloc(ress, .false.) if (iloc == 0) then ! All passed call print_teststats(Subname, nsuccess=TOT_NTESTS) return end if ! Failed call print_teststats(Subname, nsuccess=iloc-1, ifailed=iloc) ret_status = 1 end function run_test_alpin_hash end module test_alpin_hash ! ------------------------------------------------------------------- program testalpin use test_alpin_misc_utils use test_alpin_hash implicit none integer :: status = 0 status = status + run_test_alpin_misc_utils() status = status + run_test_alpin_hash() if (status .ne. 0) then call EXIT(status) ! for gfortran, Lahey Fujitsu Fortran 95, etc end if end program testalpin

test/testalpin.f90

subroutine zgefa(a,lda,n,ipvt,info) integer lda,n,ipvt(1),info complex*16 a(lda,1) c c zgefa factors a complex*16 matrix by gaussian elimination. c c zgefa is usually called by zgeco, but it can be called c directly with a saving in time if rcond is not needed. c (time for zgeco) = (1 + 9/n)*(time for zgefa) . c c on entry c c a complex*16(lda, n) c the matrix to be factored. c c lda integer c the leading dimension of the array a . c c n integer c the order of the matrix a . c c on return c c a an upper triangular matrix and the multipliers c which were used to obtain it. c the factorization can be written a = l*u where c l is a product of permutation and unit lower c triangular matrices and u is upper triangular. c c ipvt integer(n) c an integer vector of pivot indices. c c info integer c = 0 normal value. c = k if u(k,k) .eq. 0.0 . this is not an error c condition for this subroutine, but it does c indicate that zgesl or zgedi will divide by zero c if called. use rcond in zgeco for a reliable c indication of singularity. c c linpack. this version dated 08/14/78 . c cleve moler, university of new mexico, argonne national lab. c c subroutines and functions c c blas zaxpy,zscal,izamax c fortran dabs c c internal variables c complex*16 t integer izamax,j,k,kp1,l,nm1 c complex*16 zdum double precision cabs1 double precision dreal,dimag complex*16 zdumr,zdumi dreal(zdumr) = zdumr dimag(zdumi) = (0.0d0,-1.0d0)*zdumi cabs1(zdum) = dabs(dreal(zdum)) + dabs(dimag(zdum)) c c gaussian elimination with partial pivoting c info = 0 nm1 = n - 1 if (nm1 .lt. 1) go to 70 do 60 k = 1, nm1 kp1 = k + 1 c c find l = pivot index c l = izamax(n-k+1,a(k,k),1) + k - 1 ipvt(k) = l c c zero pivot implies this column already triangularized c if (cabs1(a(l,k)) .eq. 0.0d0) go to 40 c c interchange if necessary c if (l .eq. k) go to 10 t = a(l,k) a(l,k) = a(k,k) a(k,k) = t 10 continue c c compute multipliers c t = -(1.0d0,0.0d0)/a(k,k) call zscal(n-k,t,a(k+1,k),1) c c row elimination with column indexing c do 30 j = kp1, n t = a(l,j) if (l .eq. k) go to 20 a(l,j) = a(k,j) a(k,j) = t 20 continue call zaxpy(n-k,t,a(k+1,k),1,a(k+1,j),1) 30 continue go to 50 40 continue info = k 50 continue 60 continue 70 continue ipvt(n) = n if (cabs1(a(n,n)) .eq. 0.0d0) info = n return end

scipy/integrate/linpack_lite/zgefa.f

! This file is part of toml-f. ! ! Copyright (C) 2019-2020 Sebastian Ehlert ! ! Licensed under either of Apache License, Version 2.0 or MIT license ! at your option; you may not use this file except in compliance with ! the License. ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. !> Version information on TOML-Fortran module tomlf_version implicit none private public :: tomlf_version_string, tomlf_version_compact !> String representation of the TOML-Fortran version character(len=*), parameter :: tomlf_version_string = "0.2.0" !> Major version number of the above TOML-Fortran version integer, parameter :: major = 0 !> Minor version number of the above TOML-Fortran version integer, parameter :: minor = 2 !> Patch version number of the above TOML-Fortran version integer, parameter :: patch = 0 !> Compact numeric representation of the TOML-Fortran version integer, parameter :: tomlf_version_compact = major*10000 + minor*100 + patch end module tomlf_version

src/tomlf/version.f90

SUBROUTINE WIND (ILFN) MLu C CHARACTER CA*1 MLu C DO 20 I=1,30000 MLu READ (ILFN,10,ERR=100,END=100) CA MLu 10 FORMAT (A) MLu 20 CONTINUE MLu C 100 CONTINUE MLu BACKSPACE ILFN M RETURN MLu END MLu

heclib/heclib_f/src/Support/wind.f

! -*- Mode: Fortran; -*- ! ! (C) 2014 by Argonne National Laboratory. ! See COPYRIGHT in top-level directory. ! subroutine MPI_Status_set_elements_f08(status, datatype, count, ierror) use, intrinsic :: iso_c_binding, only : c_loc, c_associated use, intrinsic :: iso_c_binding, only : c_int, c_ptr use :: mpi_f08, only : MPI_Status, MPI_Datatype use :: mpi_f08, only : MPI_STATUS_IGNORE, MPIR_C_MPI_STATUS_IGNORE, assignment(=) use :: mpi_c_interface, only : c_Datatype use :: mpi_c_interface, only : c_Status use :: mpi_c_interface, only : MPIR_Status_set_elements_c implicit none type(MPI_Status), intent(inout), target :: status type(MPI_Datatype), intent(in) :: datatype integer, intent(in) :: count integer, optional, intent(out) :: ierror type(c_Status), target :: status_c integer(c_Datatype) :: datatype_c integer(c_int) :: count_c integer(c_int) :: ierror_c if (c_int == kind(0)) then if (c_associated(c_loc(status), c_loc(MPI_STATUS_IGNORE))) then ierror_c = MPIR_Status_set_elements_c(MPIR_C_MPI_STATUS_IGNORE, datatype%MPI_VAL, count) else ierror_c = MPIR_Status_set_elements_c(c_loc(status), datatype%MPI_VAL, count) end if else datatype_c = datatype%MPI_VAL count_c = count if (c_associated(c_loc(status), c_loc(MPI_STATUS_IGNORE))) then ierror_c = MPIR_Status_set_elements_c(MPIR_C_MPI_STATUS_IGNORE, datatype_c, count_c) else ierror_c = MPIR_Status_set_elements_c(c_loc(status_c), datatype_c, count_c) status = status_c end if end if if (present(ierror)) ierror = ierror_c end subroutine MPI_Status_set_elements_f08

src/binding/fortran/use_mpi_f08/wrappers_f/status_set_elements_f08ts.f90

program scatter_vector include 'mpif.h' integer ndims,xmax,ymax,nnodes,myid,totelem parameter(ndims=2) parameter(xmax=1000,ymax=1000) parameter(niters=1) parameter (totelem=xmax*ymax) integer comm,ierr integer status(MPI_STATUS_SIZE) double precision,allocatable,dimension(:,:) :: A double precision,allocatable,dimension(:) :: V,dindex1,dindex2,gV integer,allocatable,dimension(:) :: index1,index2 integer,allocatable,dimension(:) :: lindex1,lindex2 !distribute each array into nnodes processors except gV and index1 and index2 ! these last 3 arrays are global arrays. gv will hold the all local V's ! index1 and index2 will hold all the local lindex1's and lindex2's ! respectively integer xb,yb,i,j,nitems,xbv comm=MPI_COMM_WORLD call MPI_init(ierr) call MPI_COMM_RANK(comm,myid,ierr) call MPI_COMM_SIZE(comm,nnodes,ierr) !initialize the input matrixes A and allocate necessary spaces for A,B !partition the matrix a in (block ,*) way xb = xmax/nnodes xbv = totelem/nnodes !allocate necessary arrays allocate(A(xb,ymax)) allocate(V(xbv)) allocate(gV(totelem)) allocate(index1(totelem)) allocate(index2(totelem)) allocate(dindex1(totelem)) allocate(dindex2(totelem)) allocate(lindex1(xbv)) allocate(lindex2(xbv)) !last processor is generating random index vectors index1 and index2 ! and partition them onto processors and send to correspoding processor !also last processor is generating random data vector V for each processor if (myid == nnodes -1) then call random_number(dindex1) call random_number(dindex2) index1 = xmax*dindex1 + 1 index2 = ymax*dindex2 + 1 do np = 0,nnodes-1 call random_number(V) V = 1000000.0*V if (np < nnodes-1) then call MPI_SEND(V,xbv,MPI_DOUBLE_PRECISION,np,0,comm,ierr) call MPI_SEND(index1(xbv*np+1),xbv,MPI_INTEGER,np,0,comm,ierr) call MPI_SEND(index1(xbv*np+1),xbv,MPI_INTEGER,np,0,comm,ierr) endif enddo lindex1 = index1((nnodes-1)*xbv+1:totelem) lindex2 = index2((nnodes-1)*xbv+1:totelem) else call MPI_RECV(V,xbv,MPI_DOUBLE_PRECISION,nnodes-1,0,comm,status,ierr) call MPI_RECV(lindex1,xbv,MPI_INTEGER,nnodes-1,0,comm,status,ierr) call MPI_RECV(lindex1,xbv,MPI_INTEGER,nnodes-1,0,comm,status,ierr) endif !start timer ..... time_begin = MPI_Wtime() do iter = 1,niters !collect all the local V's in gV call MPI_ALLGATHER(V,xbv,MPI_DOUBLE_PRECISION, & gV,xbv,MPI_DOUBLE_PRECISION,comm,ierr) !collect all the local arrays index1's and index2's in index1 and index2 call MPI_ALLGATHER(lindex1,xbv,MPI_INTEGER,index1,& xbv,MPI_INTEGER,comm,ierr) call MPI_ALLGATHER(lindex2,xbv,MPI_INTEGER,index2,& xbv,MPI_INTEGER,comm,ierr) ilb = myid*xbv+1 iub = (myid+1)*xbv do i=1,totelem !If I am holding the vector index 'index1(i)' in my local array !I will get the gV(i) if ((index1(i) .ge. ilb).and.(index1(i).le.iub)) then A(index1(i)-ilb+1,index2(i)) = gV(i) endif enddo enddo ! Stop timer time_end = MPI_Wtime() if (myid == 0) then print *,'Elapsed time ',niters,'iterations for scatter' print *,'For matrix with dimensions',xmax,ymax ,'is' print *,time_end-time_begin ,'seconds' endif deallocate(a) deallocate(v) deallocate(gv) deallocate(index1) deallocate(index2) deallocate(lindex1) deallocate(lindex2) deallocate(dindex1) deallocate(dindex2) call MPI_FINALIZE(ierr) end SUBROUTINE all_to_all_int(myprocid,nnodes,comm,fx,global_fx,xbv,totelem) integer xbv,totelem integer fx(xbv),global_fx(totelem) integer myprocid,nnodes,comm include 'mpif.h' integer dest,source,nproc,dest_id,ierr integer status(MPI_STATUS_SIZE) do j=1,xbv global_fx(xbv*myprocid+1+j) = fx(j) enddo nproc = nnodes kcnt = myprocid dest = mod(myprocid+1,nproc) source = mod(myprocid-1+nproc,nproc) do i=1,nproc-1 if (mod (myprocid,2) .eq. 0) then call MPI_SEND(global_fx(kcnt*xbv+1),xbv,& MPI_INTEGER,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcnt*xbv+1),xbv, & MPI_INTEGER,source,0,comm,status,ierr) endif if (mod (myprocid,2) .eq. 1) then call MPI_SEND(global_fx(kcnt*xbv+1),xbv,& MPI_INTEGER,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcnt*xbv+1),xbv, & MPI_INTEGER,source,0,comm,status,ierr) endif kcnt = ikcnt enddo return end SUBROUTINE all_to_all_float(myprocid,nnodes,comm,fx,global_fx,xbv,totelem) integer xbv,totelem double precision fx(xbv),global_fx(totelem) integer myprocid,nnodes,comm include 'mpif.h' integer dest,source,nproc,dest_id,ierr integer status(MPI_STATUS_SIZE) do j=1,xbv global_fx(xbv*myprocid+1+j) = fx(j) enddo nproc = nnodes kcnt = myprocid dest = mod(myprocid+1,nproc) source = mod(myprocid-1+nproc,nproc) do i=1,nproc-1 if (mod (myprocid,2) .eq. 0) then call MPI_SEND(global_fx(kcnt*xbv+1),xbv,& MPI_DOUBLE_PRECISION,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcnt*xbv+1),xbv, & MPI_DOUBLE_PRECISION,source,0,comm,status,ierr) endif if (mod (myprocid,2) .eq. 1) then call MPI_SEND(global_fx(kcnt*xbv+1),xbv,& MPI_DOUBLE_PRECISION,dest,0,comm,ierr) else ikcnt = mod(kcnt-1+nproc,nproc) call MPI_RECV(global_fx(ikcnt*xbv+1),xbv, & MPI_DOUBLE_PRECISION,source,0,comm,status,ierr) endif kcnt = ikcnt enddo return end

files/mpi/scatter_with_mpi.f

c c ------------------------------------------------------- c subroutine fluxad(xfluxm,xfluxp,yfluxm,yfluxp, 1 svdflx,mptr,mitot,mjtot, 2 nvar,lenbc,lratiox,lratioy,ng,dtf,dx,dy) c implicit double precision (a-h,o-z) include "call.i" c :::::::::::::::::::: FLUXAD :::::::::::::::::::::::::::::::::: c save fine grid fluxes at the border of the grid, for fixing c up the adjacent coarse cells. at each edge of the grid, only c save the plus or minus fluxes, as necessary. For ex., on c left edge of fine grid, it is the minus xfluxes that modify the c coarse cell. c ::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::: dimension xfluxm(mitot,mjtot,nvar), yfluxm(mitot,mjtot,nvar) dimension xfluxp(mitot,mjtot,nvar), yfluxp(mitot,mjtot,nvar) dimension svdflx(nvar,lenbc) nx = mitot-2*ng ny = mjtot-2*ng nyc = ny/lratioy nxc = nx/lratiox c ::::: left side saved first lind = 0 do 100 j=1,nyc lind = lind + 1 jfine = (j-1)*lratioy + ng do 110 ivar = 1, nvar do 120 l=1,lratioy svdflx(ivar,lind) = svdflx(ivar,lind) + 1 xfluxm(ng+1,jfine+l,ivar)*dtf*dy c write(dbugunit,900)lind,xfluxm(1,jfine+l,ivar), c . xfluxp(1,jfine+l,ivar) 900 format(' lind ', i4,' m & p ',2e15.7,' svd ',e15.7) 120 continue 110 continue 100 continue c ::::: top side c write(dbugunit,*)" saving top side " do 200 i=1,nxc lind = lind + 1 ifine = (i-1)*lratiox + ng do 210 ivar = 1, nvar do 220 l=1,lratiox svdflx(ivar,lind) = svdflx(ivar,lind) + 1 yfluxp(ifine+l,mjtot-ng+1,ivar)*dtf*dx c write(dbugunit,900)lind,yfluxm(ifine+l,mjtot-ng+1, c . ivar),yfluxp(ifine+l,mjtot-ng+1,ivar), c . svdflx(ivar,lind) 220 continue 210 continue 200 continue c ::::: right side do 300 j=1,nyc lind = lind + 1 jfine = (j-1)*lratioy + ng do 310 ivar = 1, nvar do 320 l=1,lratioy svdflx(ivar,lind) = svdflx(ivar,lind) + 1 xfluxp(mitot-ng+1,jfine+l,ivar)*dtf*dy c write(dbugunit,900)lind,xfluxm(mitot-ng+1,jfine+l, c ivar),xfluxp(mitot-ng+1,jfine+l,ivar) 320 continue 310 continue 300 continue c ::::: bottom side c write(dbugunit,*)" saving bottom side " do 400 i=1,nxc lind = lind + 1 ifine = (i-1)*lratiox + ng do 410 ivar = 1, nvar do 420 l=1,lratiox svdflx(ivar,lind) = svdflx(ivar,lind) + 1 yfluxm(ifine+l,ng+1,ivar)*dtf*dx c write(dbugunit,900)lind,yfluxm(ifine+l,ng+1,ivar), c . yfluxp(ifine+l,ng+1,ivar),svdflx(ivar,lind) 420 continue 410 continue 400 continue return end

amrclaw/2d/lib/fluxad.f

SUBROUTINE gather_real(SEND,RECV,SIZE,root) IMPLICIT NONE include 'mpif.h' INTEGER SIZE, ROOT REAL*8 SEND(*), RECV(*) INTEGER IERR CALL MPI_GATHER(send,size,MPI_DOUBLE_PRECISION, & recv,size,MPI_DOUBLE_PRECISION,ROOT,MPI_COMM_WORLD,IERR) RETURN END SUBROUTINE SUBROUTINE gatherv_real( SEND, ssize, RECV, & rsize, rdisp, root ) IMPLICIT NONE include 'mpif.h' INTEGER ssize, ROOT INTEGER rsize(*), rdisp(*) REAL*8 SEND(*), RECV(*) INTEGER IERR CALL MPI_GATHERV( send, ssize, MPI_DOUBLE_PRECISION, & recv, rsize, rdisp, MPI_DOUBLE_PRECISION, ROOT, & MPI_COMM_WORLD, IERR ) RETURN END SUBROUTINE

comm/gather.f

c Wrappers allowing to link MacOSX's Accelerate framework to c gfortran compiled code c Accelerate BLAS is cblas (http://www.netlib.org/blas/blast-forum/cblas.tgz); c these wrappers call the cblas functions via the C-functions defined c in veclib_cabi.c REAL FUNCTION WSDOT( N, SX, INCX, SY, INCY ) INTEGER INCX, INCY, N REAL SX(*), SY(*) REAL RESULT EXTERNAL ACC_SDOT CALL ACC_SDOT( N, SX, INCX, SY, INCY, RESULT ) WSDOT = RESULT END FUNCTION REAL FUNCTION WSDSDOT( N, SB, SX, INCX, SY, INCY ) REAL SB INTEGER INCX, INCY, N REAL SX(*), SY(*) REAL RESULT EXTERNAL ACC_SDSDOT CALL ACC_SDSDOT( N, SB, SX, INCX, SY, INCY, RESULT ) WSDSDOT = RESULT END FUNCTION REAL FUNCTION WSASUM( N, SX, INCX ) INTEGER INCX, N REAL SX(*) REAL RESULT EXTERNAL ACC_SASUM CALL ACC_SASUM( N, SX, INCX, RESULT ) WSASUM = RESULT END FUNCTION REAL FUNCTION WSNRM2( N, SX, INCX ) INTEGER INCX, N REAL SX(*) REAL RESULT EXTERNAL ACC_SNRM2 CALL ACC_SNRM2( N, SX, INCX, RESULT ) WSNRM2 = RESULT END FUNCTION REAL FUNCTION WSCASUM( N, CX, INCX ) INTEGER INCX, N COMPLEX CX(*) REAL RESULT EXTERNAL ACC_SCASUM CALL ACC_SCASUM( N, CX, INCX, RESULT ) WSCASUM = RESULT END FUNCTION REAL FUNCTION WSCNRM2( N, CX, INCX ) INTEGER INCX, N COMPLEX CX(*) REAL RESULT EXTERNAL ACC_SCNRM2 CALL ACC_SCNRM2( N, CX, INCX, RESULT ) WSCNRM2 = RESULT END FUNCTION c The LAPACK in the Accelerate framework is a CLAPACK c (www.netlib.org/clapack) and has hence a different interface than the c modern Fortran LAPACK libraries. These wrappers here help to link c Fortran code to Accelerate. c This wrapper files covers all Lapack functions that are in all versions c before Lapack 3.2 (Lapack 3.2 adds CLANHF and SLANSF that would be c problematic, but those do not exist in OSX <= 10.6, and are actually not c used in scipy) REAL FUNCTION WCLANGB( NORM, N, KL, KU, AB, LDAB, WORK ) CHARACTER NORM INTEGER KL, KU, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANGB DOUBLE PRECISION CLANGB WCLANGB = REAL(CLANGB( NORM, N, KL, KU, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANGE( NORM, M, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, M, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANGE DOUBLE PRECISION CLANGE WCLANGE = REAL(CLANGE( NORM, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANGT( NORM, N, DL, D, DU ) CHARACTER NORM INTEGER N COMPLEX D( * ), DL( * ), DU( * ) EXTERNAL CLANGT DOUBLE PRECISION CLANGT WCLANGT = REAL(CLANGT( NORM, N, DL, D, DU )) END FUNCTION REAL FUNCTION WCLANHB( NORM, UPLO, N, K, AB, LDAB, WORK ) CHARACTER NORM, UPLO INTEGER K, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANHB DOUBLE PRECISION CLANHB WCLANHB = REAL(CLANHB( NORM, UPLO, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANHE( NORM, UPLO, N, A, LDA, WORK ) CHARACTER NORM, UPLO INTEGER LDA, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANHE DOUBLE PRECISION CLANHE WCLANHE = REAL(CLANHE( NORM, UPLO, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANHP( NORM, UPLO, N, AP, WORK ) CHARACTER NORM, UPLO INTEGER N REAL WORK( * ) COMPLEX AP( * ) EXTERNAL CLANHP DOUBLE PRECISION CLANHP WCLANHP = REAL(CLANHP( NORM, UPLO, N, AP, WORK )) END FUNCTION REAL FUNCTION WCLANHS( NORM, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANHS DOUBLE PRECISION CLANHS WCLANHS = REAL(CLANHS( NORM, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANHT( NORM, N, D, E ) CHARACTER NORM INTEGER N REAL D( * ) COMPLEX E( * ) EXTERNAL CLANHT DOUBLE PRECISION CLANHT WCLANHT = REAL(CLANHT( NORM, N, D, E )) END FUNCTION REAL FUNCTION WCLANSB( NORM, UPLO, N, K, AB, LDAB, WORK ) CHARACTER NORM, UPLO INTEGER K, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANSB DOUBLE PRECISION CLANSB WCLANSB = REAL(CLANSB( NORM, UPLO, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANSP( NORM, UPLO, N, AP, WORK ) CHARACTER NORM, UPLO INTEGER N REAL WORK( * ) COMPLEX AP( * ) EXTERNAL CLANSP DOUBLE PRECISION CLANSP WCLANSP = REAL(CLANSP( NORM, UPLO, N, AP, WORK )) END FUNCTION REAL FUNCTION WCLANSY( NORM, UPLO, N, A, LDA, WORK ) CHARACTER NORM, UPLO INTEGER LDA, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANSY DOUBLE PRECISION CLANSY WCLANSY = REAL(CLANSY( NORM, UPLO, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WCLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER K, LDAB, N REAL WORK( * ) COMPLEX AB( LDAB, * ) EXTERNAL CLANTB DOUBLE PRECISION CLANTB WCLANTB = REAL(CLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WCLANTP( NORM, UPLO, DIAG, N, AP, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER N REAL WORK( * ) COMPLEX AP( * ) EXTERNAL CLANTP DOUBLE PRECISION CLANTP WCLANTP = REAL(CLANTP( NORM, UPLO, DIAG, N, AP, WORK )) END FUNCTION REAL FUNCTION WCLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER LDA, M, N REAL WORK( * ) COMPLEX A( LDA, * ) EXTERNAL CLANTR DOUBLE PRECISION CLANTR WCLANTR = REAL(CLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSCSUM1( N, CX, INCX ) INTEGER INCX, N COMPLEX CX( * ) EXTERNAL SCSUM1 DOUBLE PRECISION SCSUM1 WSCSUM1 = REAL(SCSUM1( N, CX, INCX )) END FUNCTION REAL FUNCTION WSLANGB( NORM, N, KL, KU, AB, LDAB, WORK ) CHARACTER NORM INTEGER KL, KU, LDAB, N REAL AB( LDAB, * ), WORK( * ) EXTERNAL SLANGB DOUBLE PRECISION SLANGB WSLANGB = REAL(SLANGB( NORM, N, KL, KU, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WSLANGE( NORM, M, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, M, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANGE DOUBLE PRECISION SLANGE WSLANGE = REAL(SLANGE( NORM, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLANGT( NORM, N, DL, D, DU ) CHARACTER NORM INTEGER N REAL D( * ), DL( * ), DU( * ) EXTERNAL SLANGT DOUBLE PRECISION SLANGT WSLANGT = REAL(SLANGT( NORM, N, DL, D, DU )) END FUNCTION REAL FUNCTION WSLANHS( NORM, N, A, LDA, WORK ) CHARACTER NORM INTEGER LDA, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANHS DOUBLE PRECISION SLANHS WSLANHS = REAL(SLANHS( NORM, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLANSB( NORM, UPLO, N, K, AB, LDAB, WORK ) CHARACTER NORM, UPLO INTEGER K, LDAB, N REAL AB( LDAB, * ), WORK( * ) EXTERNAL SLANSB DOUBLE PRECISION SLANSB WSLANSB = REAL(SLANSB( NORM, UPLO, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WSLANSP( NORM, UPLO, N, AP, WORK ) CHARACTER NORM, UPLO INTEGER N REAL AP( * ), WORK( * ) EXTERNAL SLANSP DOUBLE PRECISION SLANSP WSLANSP = REAL(SLANSP( NORM, UPLO, N, AP, WORK )) END FUNCTION REAL FUNCTION WSLANST( NORM, N, D, E ) CHARACTER NORM INTEGER N REAL D( * ), E( * ) EXTERNAL SLANST DOUBLE PRECISION SLANST WSLANST = REAL(SLANST( NORM, N, D, E )) END FUNCTION REAL FUNCTION WSLANSY( NORM, UPLO, N, A, LDA, WORK ) CHARACTER NORM, UPLO INTEGER LDA, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANSY DOUBLE PRECISION SLANSY WSLANSY = REAL(SLANSY( NORM, UPLO, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER K, LDAB, N REAL AB( LDAB, * ), WORK( * ) EXTERNAL SLANTB DOUBLE PRECISION SLANTB WSLANTB = REAL(SLANTB( NORM, UPLO, DIAG, N, K, AB, LDAB, WORK )) END FUNCTION REAL FUNCTION WSLANTP( NORM, UPLO, DIAG, N, AP, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER N REAL AP( * ), WORK( * ) EXTERNAL SLANTP DOUBLE PRECISION SLANTP WSLANTP = REAL(SLANTP( NORM, UPLO, DIAG, N, AP, WORK )) END FUNCTION REAL FUNCTION WSLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK ) CHARACTER DIAG, NORM, UPLO INTEGER LDA, M, N REAL A( LDA, * ), WORK( * ) EXTERNAL SLANTR DOUBLE PRECISION SLANTR WSLANTR = REAL(SLANTR( NORM, UPLO, DIAG, M, N, A, LDA, WORK )) END FUNCTION REAL FUNCTION WSLAPY2( X, Y ) REAL X, Y EXTERNAL SLAPY2 DOUBLE PRECISION SLAPY2 WSLAPY2 = REAL(SLAPY2( X, Y )) END FUNCTION REAL FUNCTION WSLAPY3( X, Y, Z ) REAL X, Y, Z EXTERNAL SLAPY3 DOUBLE PRECISION SLAPY3 WSLAPY3 = REAL(SLAPY3( X, Y, Z )) END FUNCTION REAL FUNCTION WSLAMCH( CMACH ) CHARACTER CMACH EXTERNAL SLAMCH DOUBLE PRECISION SLAMCH WSLAMCH = REAL(SLAMCH( CMACH )) END FUNCTION REAL FUNCTION WSLAMC3( A, B ) REAL A, B EXTERNAL SLAMC3 DOUBLE PRECISION SLAMC3 WSLAMC3 = REAL(SLAMC3( A, B )) END FUNCTION

scipy/_build_utils/src/wrap_accelerate_f.f

! Copyright (c) 2021-2022, University of Colorado Denver. All rights reserved. ! ! This file is part of <T>LAPACK. ! <T>LAPACK is free software: you can redistribute it and/or modify it under ! the terms of the BSD 3-Clause license. See the accompanying LICENSE file. subroutine ssymm ( & layout, side, uplo, m, n, alpha, A, lda, B, ldb, beta, C, ldc ) use, intrinsic :: iso_c_binding use constants, & only: wp => sp, & blas_size implicit none character :: layout, side, uplo integer(blas_size) :: m, n, lda, ldb, ldc real(wp) :: alpha, beta real(wp), target :: A, B, C character(c_char) :: c_layout, c_side, c_uplo include "tblas.fi" c_layout = layout c_side = side c_uplo = uplo call ssymm_ ( & c_layout, c_side, c_uplo, m, n, alpha, & c_loc(A), lda, c_loc(B), ldb, beta, c_loc(C), ldc ) end subroutine

src/blas/symm.f90

c read a few eigenvectors, a spectrum, and try to fit z program fitz include 'specarray.h' parameter(NMAXVECTS=12) parameter(NMAXSTEP=2*NLOGWMAX) c scale sky by estimating read and photon noise ? parameter (IFSCALENOISE=1) c plot intermediate steps? parameter (IFPLOTALL=0) c read spectrum names from a file? parameter (IFFILE=1) c overplot the actual z, when known? parameter (IFREALZ=1) c max number of minima to find and zestimates to return parameter (NMAXEST=12) c real evects(NMAXVECTS,NLOGWMAX) integer koffset,nvmax,nwlmax real z common /vectorfit/ koffset,z,nvmax,nwlmax, $ evects(NMAXVECTS,NLOGWMAX) real spec1(NWAVEMAX),espec1(NWAVEMAX) real spec2(NLOGWMAX),espec2(NLOGWMAX) real spec3(NLOGWMAX),espec3(NLOGWMAX) real tmpspec(NLOGWMAX),wavelog(NLOGWMAX),wavelin(NWAVEMAX) integer ifit(NLOGWMAX) real wfit(NLOGWMAX),sfit(NLOGWMAX),efit(NLOGWMAX) real rifit(NLOGWMAX),fitvect(NLOGWMAX) real waverest1(NLOGWMAX) real wrestlin(NWAVEMAX) real zp1log(NMAXSTEP),zarr(NMAXSTEP) real rnparr(NMAXSTEP) integer indkarr(NMAXEST) real diffarr(NMAXEST),zestarr(NMAXEST) c real xpl(2),ypl(2) c real zout(NLOGWMAX),zchisq(NLOGWMAX) character sname*60,esname*60,vname*60 character answ*3,tlabel*60,xlabel*60 character fsname*60,fename*60,fzname*60 integer isize(7) c stuff for svdfit real uu(NLOGWMAX,NMAXVECTS) real vv(NMAXVECTS,NMAXVECTS),ww(NMAXVECTS) real acoeff(NMAXVECTS),evals(NMAXVECTS) real chifit(NMAXSTEP),rchifit(NMAXSTEP) external funcs include 'pcredshift.h' c call pgbeg(0,'?',2,2) call pgbeg(0,'?',1,1) call pgscf(2) call pgsch(1.3) write(*,'("Full continuum fit subtraction [1,y-yes]? ",$)') read(*,'(a1)') answ if (answ(1:1) .eq. '0' .or. answ(1:1) .eq. 'n' .or. $ answ(1:1) .eq. 'N') then ifcontsub = 0 else ifcontsub = 1 end if write(*,'("Do mean subtraction [1,y-yes]? ",$)') read(*,'(a1)') answ if (answ(1:1) .eq. '0' .or. answ(1:1) .eq. 'n' .or. $ answ(1:1) .eq. 'N') then ifmeansub = 0 else ifmeansub = 1 end if 100 write(*, $ '("Diameter for median smoothing, pixels [0,1=none]: ",$)') read(*,'(a3)') answ if (answ(1:3) .eq. ' ') then ndiamed = 0 else read(answ,*,err=100) ndiamed end if c write(*, c $ '("Restwave spectrum region to use in PCA, min, max: ",$)') c read(*,*) pcawmin,pcawmax c pwminlog = log10(pcawmin) c pwmaxlog = log10(pcawmax) nvmax=NMAXVECTS nwlmax=NLOGWMAX c open file and read eigenvectors. nvects is returned as c the # of vectors to use, nw is the actual # of wavelength pixels call readevects(evects,nvmax,nwlmax,waverest1,nv,nw) nwlog = nw c figure out w0 and dw for the eigenvectors. This is in log w c There is no check yet to make sure it's evenly spaced. dwrlog = (waverest1(nw) - waverest1(1)) / (nwlog-1.) w0rlog = waverest1(1) - dwrlog do i=1,nwlog wrestlin(i) = 10**waverest1(i) end do c write(*,*) "w0rlog, dwrlog = ", w0rlog,dwrlog c plot the eigenvectors call pgsubp(2,2) do i=1,nv do j=1,nwlog tmpspec(j) = evects(i,j) end do call showspec(nwlog,waverest1,tmpspec) write(tlabel,'(a,1x,i3)') "eigenvector",i-1 call pglabel("log wavelength"," ",tlabel) end do c call pgsubp(1,1) call pgsubp(2,2) 200 continue if (IFFILE .eq. 1) then write(*,'("File with spectrum names: ",$)') read(*,'(a)') fsname open(10,file=fsname,status='old',err=200) write(*,'("File with sky/rms names: ",$)') read(*,'(a)') fename open(11,file=fename,status='old',err=200) if (IFREALZ .eq. 1) then write(*,'("File with actual zs for plot [none]: ",$)') read(*,'(a)') fzname if (fzname(1:3) .ne. ' ') then open(12,file=fzname,status='old',err=202) ifzfile=1 else c no actual z file ifzfile=0 end if 202 continue end if end if open(2,file='fitz.out',status='unknown') open(3,file='fitz.out1',status='unknown') open(4,file='fitz.out2',status='unknown') 220 continue c open files and read spec and error, with wavelength calib. if (IFFILE .eq. 1) then read(10,'(a)',err=666,end=666) sname read(11,'(a)',err=666,end=666) esname zreal=1.0e6 if (IFREALZ .eq. 1 .and. ifzfile .eq. 1) then read(12,*,err=222,end=222) zreal end if 222 continue else write(*,'("fits file with spectrum [quit]: ",$)') read(*,'(a)') sname if (sname(1:3) .eq. ' ') go to 666 write(*,'("fits file with sky/rms [quit]: ",$)') read(*,'(a)') esname if (esname(1:3) .eq. ' ') go to 666 if (IFREALZ .eq. 1) then write(*,'("actual z for plotting [none]: ",$)') read(*,'(a)') fzname zreal=1.0e6 if (fzname(1:3) .ne. ' ') then read(fzname,*,err=232) zreal end if 232 continue end if end if call imopen(sname,1,imgs,ier) if (ier .ne. 0) go to 220 call imgsiz(imgs,isize,idim,itype,ier) c trim a buffer at end to get rid of the region where Marc encoded c the slit number ibuff2 = 25 nwspec = isize(1) - ibuff2 call imopen(esname,1,imge,ier) c call imgsiz(imge,isize,idim,itype,ier) if (ier .ne. 0) go to 220 call imgl1r(imgs,spec1,ier) call imgl1r(imge,espec1,ier) c find wavelength of pixel 0, and dw/dpix call imgkwr(imgs,'CRPIX1',refpix,ier) c if (ier .ne. 0) refpix = badset if (ier .ne. 0) then ier=0 refpix = 0. end if call imgkwr(imgs,'CRVAL1',refw,ier) if (ier .ne. 0) refw = badset call imgkwr(imgs,'CDELT1',dwsp,ier) if (ier .ne. 0 .or. abs(dwsp) .lt. 1.e-3) then ier=0 call imgkwr(imgs,'CD1_1',dwsp,ier) if (ier .ne. 0) dwsp = badset end if if (refpix .gt. bad .and. refw .gt. bad .and. dwsp .gt. bad) $ then w0sp = refw - refpix*dwsp c dws = dwsp else c we should really do something here c w0s = badset c dws = badset write(*, $ '("Couldnt get w0 and dw for ",a," enter w0,dw: ",$)') sname read(*,*) w0sp,dwsp end if write(*,*) "w0sp, dwsp = ", w0sp,dwsp call imclos(imgs,ier) call imclos(imge,ier) c zero out anything beyond the actual spectrum do i=nwspec+1,nw spec1(i) = 0.0 espec1(i) = 0.0 end do c try to clean out bad values badmax = 5000. do i=1,nw if(spec1(i) .lt. bad .or. spec1(i) .gt. badmax) $ spec1(i) = badset if(espec1(i) .lt. bad .or. espec1(i) .gt. badmax) $ espec1(i) = badset end do c Figure out the ref wavelength for the log rebinning so that c it falls on the wl scale of the eigenvectors. tmp = log10(w0sp) itmp = int( (tmp-w0rlog)/dwrlog ) w0log = w0rlog + dwrlog*itmp c k0offset is the offset in integer index of log wavelength c from the beginning of the eigenvectors to the spectrum to be fit. k0offset = itmp dwlog = dwrlog c write(*,*) "w0log, dwlog = ", w0log,dwlog c convert sky spectrum into std.dev spectrum. This might be better c done after smoothing and log rebinning? c Placeholder assumptions: 2x30 min exposures, 5 pixel diam c extraction window. if (IFSCALENOISE .eq. 1) then nexp = 2 exptime = 30.*60. c dpix = 5. dpix = 1. call scalenoise(espec1,nwspec,nexp,exptime,dpix,espec2) else c or if the sky spectrum is actually a rms/per pixel spectrum c we could do nothing, or scale down by a factor of c sqrt(#pixels). #pixels is most likely 7. do i=1,nwspec espec2(i) = espec1(i) / sqrt(7.0) end do end if do i=1,nw wavelin(i) = w0sp+i*dwsp wavelog(i) = log10(wavelin(i)) end do if (IFPLOTALL .ne. 0) then call showspec(nwspec,wavelin,spec1) call pgqci(indexc) call pgsci(3) call pgline(nwspec,wavelin,espec2) call pgsci(indexc) call pglabel("wavelength","counts","spectrum and error") end if c blank out? blankoutsky is supposed to run on a 2-d array call blankoutsky(spec1,1,1,nwspec,wavelin) cc find region of good data c call findends(nwspec,spec1,imin,imax) c imingood = imin c nwspecgood = imax-imin+1 c median smooth if (ndiamed .gt. 1) then call medsmooth(nwspec,spec1,ndiamed,spec2) c call medsmooth(nwspecgood,spec1(imingood),ndiamed, c $ spec2(imingood)) c attempt to compensate the errors. I divided ndiamed by 2 as c a hack since adjacent pixels are not independent (assume the # C of indep measurements is about pixels/2 if well sampled) tmp = sqrt(max(ndiamed/2.,1.)) do i=1,nwspec espec2(i) = espec2(i) / tmp end do else do i=1,nwspec spec2(i) = spec1(i) espec2(i) = espec2(i) end do end if if (IFPLOTALL .ne. 0) then call showspec(nwspec,wavelin,spec2) call pglabel("wavelength","counts","median smoothed") call pgqci(indexc) call pgsci(3) call pgline(nwspec,wavelin,espec2) call pgsci(indexc) end if c log rebin both. log rebinning the std dev the same way is a c total hack, thus it is better done on the variance call logrebin(spec2,nwspec,w0sp,dwsp,nwlog,w0log,dwlog,spec3) c call logrebin(spec2(imingood),nwspecgood,w0sp,dwsp, c $ nwlog,w0log,dwlog,spec3) c convert std dev to variance do i=1,nwlog espec3(i) = espec2(i)**2 end do call logrebin(espec3,nwspec,w0sp,dwsp,nwlog,w0log,dwlog,espec2) c call logrebin(espec3(imingood),nwspecgood,w0sp,dwsp, c $ nwlog,w0log,dwlog,espec2) c convert back do i=1,nwlog espec3(i) = sqrt(max(espec2(i),1.e-2)) end do if (IFPLOTALL .ne. 0) then call showspec(nwlog,wavelog,spec3) call pglabel("log wavelength","counts","log rebinned") call pgqci(indexc) call pgsci(3) call pgline(nwlog,wavelog,espec3) call pgsci(indexc) end if c find&clean ends call findends(nwlog,spec3,imin,imax) call cleanends(nwlog,spec3,imin,imax) write(*,*) "imin, imax = ", imin,imax c continuum subtract if (ifcontsub .ne. 0) then contwrad = 100.*dwlog call contsubmed(spec3,nwlog,dwlog,contwrad) else call contsubconst(spec3,nwlog) end if if (IFPLOTALL .ne. 0) then call showspec(nwlog,wavelog,spec3) call pgqci(indexc) call pgsci(3) call pgline(nwlog,wavelog,espec3) call pgsci(indexc) call pglabel("log wavelength","counts","continuum subtracted") end if c copy wave and spec to temp array, cleaning out bad points npfit=0 do i=1,nwlog if(spec3(i) .gt. bad .and. espec3(i) .gt. bad) then npfit=npfit+1 ifit(npfit) = i rifit(npfit) = real(i) wfit(npfit) = w0log + i*dwlog sfit(npfit) = spec3(i) efit(npfit) = espec3(i) end if end do write (*,*) npfit, " points to fit" c if (IFPLOTALL .ne. 0) then call showspec(npfit,wfit,sfit) call pgqci(indexc) call pgsci(3) call pgline(npfit,wfit,efit) call pgsci(indexc) call pglabel("log wavelength","counts", $ "spectrum and error to fit, "//sname) c end if c What are the good data regions? The spectrum was c good from imin to imax (before cleanends). Eigenvector 1 c (actually the mean) is good from jmin to jmax. do j=1,nwlog spec2(j) = evects(1,j) end do call findends(nwlog,spec2,jmin,jmax) c write(*,*) 'imin,imax,jmin,jmax, k0off: ',imin,imax,jmin,jmax, c $ k0offset c loop over steps in log w. the spectrum, indexed by i, c is offset to the red of the eigenvectors, indexed by j, c by k steps: j+k = i, k = i-j c and note that the two scales are offset by k0offset, so when c z=0, i=j-k0offset. Typically the spectrum starts redder c than the eigenv. so k0offset>0. If we started at c z=0, k would start at -koffset. c log w = log wrest + log(1+z), so k*dwlog = log(1+z) c Start with an offset of z=-0.01 kmin = int(log10(1-0.01)/dwlog) - k0offset c For pos. redshift, i+k0offset>j (i is position in spectrum, j in evect) c Go to the point where only 10 pts overlap, which doesn't c depend on k0offset. kmax = imax-10-jmin nk=kmax-kmin+1 c write(*,*) "kmin, kmax: ",kmin,kmax tmp1 = (kmin+k0offset)*dwlog tmp2 = (kmax+k0offset)*dwlog c write(*,*) "log(1+z): ",tmp1,tmp2," z: ", c $ 10**tmp1-1.0,10**tmp2-1.0 c open(2,file='fitz.out1',status='unknown') do k=kmin,kmax c kindex is 1 when k=kmin kindex = k-kmin+1 c for passing k to the funcs subroutine koffset=k zp1log(kindex) = (k+k0offset)*dwlog zarr(kindex) = 10**zp1log(kindex) - 1.0 z = zarr(kindex) c we should only use the data that overlaps the eigenvectors, c the eigenvectors extend from jmin to jmax, and i=j+k. c But, since we cleaned out bad points, the spectrum to fit c is no longer evenly spaced in dwlog, so ifitmax is not c trivial to calculate. Bummer! c that is, what I've been calling "i" is the index of spec3(i), c and the contents of ifit() and rifit(), but it is not the c index of ifit iminorig = jmin+k imaxorig = jmax+k c now find the corresponding index of ifit - i.e. c we want iminfit where ifit(iminfit) >= iminorig. Confused yet? call findindex(npfit,ifit,iminorig,imaxorig,iminfit,imaxfit) npfittmp = imaxfit-iminfit+1 rnparr(kindex) = real(npfittmp) c write(*,*) "iminfit,imaxfit: ",iminfit,imaxfit,npfittmp c now we gotta only use the matching points in the eigenvectors, c which is a PITA. Actually we've solved this through the way c that funcs() works. c do fit using svdfit or something like it. c Each of the functions will be an eigenvector c call bigsvdfit(wfit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) c call bigsvdfit(rifit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) call bigsvdfit(rifit(iminfit),sfit(iminfit),efit(iminfit), $ npfittmp,acoeff,nv,uu,vv,ww,nwlmax,nvmax,chisq1,funcs) chifit(kindex) = chisq1 c to get rid of division by zero when there were no points c to fit. rchifit(kindex) = chisq1/max(real(npfittmp),1.e-4) c write(2,*) k,kindex,npfittmp,zp1log(kindex),zarr(kindex), c $ chifit(kindex),rchifit(kindex) end do c close(2) c find the absolute minimum in chi-squared. there are probably c better ways to do this in the long run c call findabsmin(nk,chifit,indkmin,chimin) c call findabsmin(nk,rchifit,indkrmin,rchimin) c try finding the point with the biggest drop below "continuum" c i.e. deepest local minimum call findlocmin(nk,chifit,indkmin,chimin,chiminavg) call findlocmin(nk,rchifit,indkrmin,rchimin,rchiminavg) c find the n deepest local minima in chi squared nfind=5 call findmultmin(nk,chifit,nfind,indkarr,diffarr) zmin=zarr(indkmin) zrmin=zarr(indkrmin) do i=1,nfind zestarr(i) = zarr(indkarr(i)) end do write(*,*) "chisq min at ",indkmin,zmin,chimin,chiminavg write(*,*) "reduced chisq min at ",indkrmin,zrmin,rchimin, $ rchiminavg c write stuff to output files. c 2 - fitz.out gets # of z-estimates, z-estimates, spec name c 3 - fitz.out1 gets specname(truncated), z(deepest chisq min) , c z(deepest rchisq min), chi-min, chi-"continuum", c rchi-min, rchi-"continuum" c 4 - fitz.out2 gets for each z-est: k-index, z-est, depth in chisq c write(3,'(a,f7.4,3x,f7.4)') sname,zmin,zrmin write(3,'(a25,2(3x,f7.4),3x,4(1x,1pe10.3))') $ sname,zmin,zrmin,chimin,chiminavg,rchimin,rchiminavg write(2,'(i2,$)') nfind do i=1,nfind write(2,'(2x,f7.4$)') zestarr(i) write(4,'(i5,2x,f7.4,2x,f9.1,$)') indkarr(i),zestarr(i), $ diffarr(i) end do write(2,'(2x,a25)') sname write(4,'(2x,a25)') sname c plot c call showspec(nk,zp1log,chifit) c call plotz(log10(1.+zreal),log10(1.+zmin),log10(1+zrmin)) c write(xlabel,1010) "log(1+z)",zreal,zmin,zrmin c call pglabel(xlabel,"chi-squared",sname) call showspec(nk,zarr,chifit) call plotz(zreal,zmin,zrmin) write(xlabel,1010) "z",zreal,zmin,zrmin call pglabel(xlabel,"chi-squared",sname) call showspec(nk,zarr,rchifit) call plotz(zreal,zmin,zrmin) write(xlabel,1010) "z",zreal,zmin,zrmin call pglabel(xlabel,"reduced chi-squared",sname) 1010 format(a,", z=",f7.4," zest1=",f7.4," zest2=",f7.4) c call showspec(nk,zarr,rnparr) c call pglabel("z","number of points in fit",sname) c calculate the fit at chimin. Redo the fit to get the coeffs c for the best-fit spectrum koffset=indkmin+kmin-1 call findindex(npfit,ifit,jmin+koffset,jmax+koffset, $ iminfit,imaxfit) npfittmp=imaxfit-iminfit+1 c write(*,*) "iminfit,imaxfit: ",iminfit,imaxfit,npfittmp c call bigsvdfit(rifit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) call bigsvdfit(rifit(iminfit),sfit(iminfit),efit(iminfit), $ npfittmp,acoeff,nv,uu,vv,ww,nwlmax,nvmax,chisq1,funcs) write(*,*) "coeffs ",(acoeff(i),i=1,nv) do i=1,npfit call funcs(rifit(i),evals,nv) fitvect(i) = 0.0 do j=1,nv fitvect(i) = fitvect(i) + acoeff(j)*evals(j) end do end do call showspec(npfit,wfit,sfit) call pglabel("log wavelength","counts"," ") call pgmtxt('T',2.5,0.0,0.0,sname) call pgmtxt('T',1.5,0.0,0.0,"spectrum and best fits") call pgqci(indexc) call pgsci(3) call pgline(npfit,wfit,fitvect) write(tlabel,'(a,f7.4)') "chi-sq, z=",zmin call pgmtxt('T',2.5,1.0,1.0,tlabel) call pgsci(indexc) c calculate the fit at rchimin koffset=indkrmin+kmin-1 call findindex(npfit,ifit,jmin+koffset,jmax+koffset, $ iminfit,imaxfit) npfittmp=imaxfit-iminfit+1 c call bigsvdfit(rifit,sfit,efit,npfit,acoeff,nv,uu,vv,ww, c $ nwlmax,nvmax,chisq1,funcs) call bigsvdfit(rifit(iminfit),sfit(iminfit),efit(iminfit), $ npfittmp,acoeff,nv,uu,vv,ww,nwlmax,nvmax,chisq1,funcs) c write(*,*) "coeffs ",(acoeff(i),i=1,nv) do i=1,npfit call funcs(rifit(i),evals,nv) fitvect(i) = 0.0 do j=1,nv fitvect(i) = fitvect(i) + acoeff(j)*evals(j) end do end do call pgqci(indexc) call pgsci(2) call pgline(npfit,wfit,fitvect) write(tlabel,'(a,f7.4)') "red.chisq, z=",zrmin call pgmtxt('T',1.5,1.0,1.0,tlabel) call pgsci(indexc) go to 220 666 continue close(2) close(3) close(4) close(10) close(11) if (ifzfile .ne. 0) close(12) call pgend() end cccccccccccccccccccc c funcs returns the values of the nv eigenvectors c evaluated at position xfit, in the array evals c if svdfit is called with argument wfit, xfit is the c log wavelength. c if svdfit is called with argument rifit, xfit is the c index in the log wavelength array, as a real. c subroutine funcs(xfit,evals,nv) include 'specarray.h' c having NMAXVECTS in here as well as fitz is a bad kludge parameter(NMAXVECTS=12) real evals(nv) common /vectorfit/ koffset,z,nvmax,nwlmax, $ evects(NMAXVECTS,NLOGWMAX) c find the index corresponding to the position xfit c and retrieve the eigenvector values c this is for use with rifit ispec = nint(xfit) jvect = ispec-koffset if(jvect .ge. 1 .and. jvect .le. nwlmax) then do i=1,nv evals(i) = evects(i,jvect) end do else do i=1,nv evals(i) = 0.0 end do end if return end cccccccccccccccccccccccccccccccccccccccc c Draw vertical lines for the actual z and z-estimates c on the chi-squared plots. subroutine plotz(zreal,zest1,zest2) real xpl(2),ypl(2) integer indexc,indexls ypl(1) = -100. ypl(2) = 1.0e10 call pgqci(indexc) call pgqls(indexls) c call pgsls(1) xpl(1) = zreal xpl(2) = zreal call pgsci(4) call pgsls(5) call pgline(2,xpl,ypl) xpl(1) = zest1 xpl(2) = zest1 call pgsci(3) call pgsls(4) call pgline(2,xpl,ypl) xpl(1) = zest2 xpl(2) = zest2 call pgsci(2) call pgsls(3) call pgline(2,xpl,ypl) call pgsci(indexc) call pgsls(indexls) return end

fitz.f

! ! Copyright 2018 SALMON developers ! ! Licensed under the Apache License, Version 2.0 (the "License"); ! you may not use this file except in compliance with the License. ! You may obtain a copy of the License at ! ! http://www.apache.org/licenses/LICENSE-2.0 ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. ! !----------------------------------------------------------------------------------------- subroutine eh_finalize(grid,tmp) use inputoutput, only: utime_from_au,ulength_from_au,uenergy_from_au,unit_system,iperiodic,& ae_shape1,ae_shape2,e_impulse,sysname,nt_em,nenergy,de, & directory,iobs_num_em,iobs_samp_em use salmon_parallel, only: nproc_id_global use salmon_communication, only: comm_is_root use salmon_maxwell, only:fdtd_grid,fdtd_tmp implicit none type(fdtd_grid) :: grid type(fdtd_tmp) :: tmp integer :: ii real(8),parameter :: pi=3.141592653589793d0 character(128) :: save_name !output linear response(matter dipole pm and current jm are outputted: pm = -dip and jm = -curr) if(ae_shape1=='impulse'.or.ae_shape2=='impulse') then if(iperiodic==0) then !output time-dependent dipole data if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_p.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# time[a.u.], dipoleMoment(x,y,z)[a.u.]" case('A_eV_fs') write(tmp%ifn,'(A)') "# time[fs], dipoleMoment(x,y,z)[Ang.]" end select do ii=1,nt_em write(tmp%ifn, '(E13.5)',advance="no") tmp%time_lr(ii)*utime_from_au write(tmp%ifn, '(3E16.6e3)',advance="yes") -tmp%dip_lr(ii,:)*ulength_from_au end do close(tmp%ifn) end if !output lr data call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%dip_lr(:,1),tmp%fr_lr(:,1),tmp%fi_lr(:,1)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%dip_lr(:,2),tmp%fr_lr(:,2),tmp%fi_lr(:,2)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%dip_lr(:,3),tmp%fr_lr(:,3),tmp%fi_lr(:,3)) if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_lr.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# energy[a.u.], Re[alpha](x,y,z)[a.u.], Im[alpha](x,y,z)[a.u.], df/dE(x,y,z)[a.u.]" case('A_eV_fs') write(tmp%ifn,'(A)') "# energy[eV], Re[alpha](x,y,z)[Ang.**3], Im[alpha](x,y,z)[Ang.**3], df/dE(x,y,z)[1/eV]" end select do ii=0,nenergy write(tmp%ifn, '(E13.5)',advance="no") dble(ii)*de*uenergy_from_au write(tmp%ifn, '(3E16.6e3)',advance="no") tmp%fr_lr(ii,:)/(-e_impulse)*(ulength_from_au**3.0d0) write(tmp%ifn, '(3E16.6e3)',advance="no") tmp%fi_lr(ii,:)/(-e_impulse)*(ulength_from_au**3.0d0) write(tmp%ifn, '(3E16.6e3)',advance="yes") 2.0d0*dble(ii)*de/pi*tmp%fi_lr(ii,:)/(-e_impulse)/uenergy_from_au end do close(tmp%ifn) end if elseif(iperiodic==3) then !output time-dependent dipole data if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_current.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# time[a.u.], current(x,y,z)[a.u.]" case('A_eV_fs') write(tmp%ifn,'(A)') "# time[fs], current(x,y,z)[A/Ang.^2]" end select do ii=1,nt_em write(tmp%ifn, '(E13.5)',advance="no") tmp%time_lr(ii)*utime_from_au write(tmp%ifn, '(3E16.6e3)',advance="yes") -tmp%curr_lr(ii,:)*tmp%uAperm_from_au/ulength_from_au end do close(tmp%ifn) end if !output lr data call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%curr_lr(:,1),tmp%fr_lr(:,1),tmp%fi_lr(:,1)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%curr_lr(:,2),tmp%fr_lr(:,2),tmp%fi_lr(:,2)) call eh_fourier(nt_em,nenergy,grid%dt,de,tmp%time_lr,tmp%curr_lr(:,3),tmp%fr_lr(:,3),tmp%fi_lr(:,3)) if(comm_is_root(nproc_id_global)) then save_name=trim(adjustl(directory))//'/'//trim(adjustl(sysname))//'_lr.data' open(tmp%ifn,file=save_name) select case(unit_system) case('au','a.u.') write(tmp%ifn,'(A)') "# energy[a.u.], Re[epsilon](x,y,z), Im[epsilon](x,y,z)" case('A_eV_fs') write(tmp%ifn,'(A)') "# energy[eV], Re[epsilon](x,y,z), Im[epsilon](x,y,z)" end select do ii=1,nenergy write(tmp%ifn, '(E13.5)',advance="no") dble(ii)*de*uenergy_from_au write(tmp%ifn, '(3E16.6e3)',advance="no") 1.0d0-4.0d0*pi*tmp%fi_lr(ii,:)/(-e_impulse)/(dble(ii)*de) write(tmp%ifn, '(3E16.6e3)',advance="yes") 4.0d0*pi*tmp%fr_lr(ii,:)/(-e_impulse)/(dble(ii)*de) end do end if end if end if !observation if(iobs_num_em>0) then if(comm_is_root(nproc_id_global)) then !make information file open(tmp%ifn,file=trim(directory)//"/obs0_info.data") write(tmp%ifn,'(A,A14)') 'unit_system =',trim(unit_system) write(tmp%ifn,'(A,I14)') 'iperiodic =',iperiodic write(tmp%ifn,'(A,ES14.5)') 'dt_em =',grid%dt*utime_from_au write(tmp%ifn,'(A,I14)') 'nt_em =',(tmp%iter_end-tmp%iter_sta+1) write(tmp%ifn,'(A,ES14.5,A,ES14.5,A,ES14.5)') 'al_em =',& grid%rlsize(1)*ulength_from_au,', ',& grid%rlsize(2)*ulength_from_au,', ',& grid%rlsize(3)*ulength_from_au write(tmp%ifn,'(A,ES14.5,A,ES14.5,A,ES14.5)') 'dl_em =',& grid%hgs(1)*ulength_from_au,', ',& grid%hgs(2)*ulength_from_au,', ',& grid%hgs(3)*ulength_from_au write(tmp%ifn,'(A,I14,A,I14,A,I14)') 'lg_sta =',& grid%lg_sta(1),', ',grid%lg_sta(2),', ',grid%lg_sta(3) write(tmp%ifn,'(A,I14,A,I14,A,I14)') 'lg_end =',& grid%lg_end(1),', ',grid%lg_end(2),', ',grid%lg_end(3) write(tmp%ifn,'(A,I14)') 'iobs_num_em =',iobs_num_em write(tmp%ifn,'(A,I14)') 'iobs_samp_em =',iobs_samp_em write(tmp%ifn,'(A,ES14.5)') 'e_max =',tmp%e_max write(tmp%ifn,'(A,ES14.5)') 'h_max =',tmp%h_max close(tmp%ifn) end if end if !deallocate deallocate(tmp%ex_y,tmp%c1_ex_y,tmp%c2_ex_y,tmp%ex_z,tmp%c1_ex_z,tmp%c2_ex_z,& tmp%ey_z,tmp%c1_ey_z,tmp%c2_ey_z,tmp%ey_x,tmp%c1_ey_x,tmp%c2_ey_x,& tmp%ez_x,tmp%c1_ez_x,tmp%c2_ez_x,tmp%ez_y,tmp%c1_ez_y,tmp%c2_ez_y,& tmp%hx_y,tmp%c1_hx_y,tmp%c2_hx_y,tmp%hx_z,tmp%c1_hx_z,tmp%c2_hx_z,& tmp%hy_z,tmp%c1_hy_z,tmp%c2_hy_z,tmp%hy_x,tmp%c1_hy_x,tmp%c2_hy_x,& tmp%hz_x,tmp%c1_hz_x,tmp%c2_hz_x,tmp%hz_y,tmp%c1_hz_y,tmp%c2_hz_y) !write end if(comm_is_root(nproc_id_global)) then write(*,*) "-------------------------------------------------------" write(*,*) "**************************" write(*,*) "FDTD end" write(*,*) "**************************" end if end subroutine eh_finalize !========================================================================================= != Fourier transformation in eh ========================================================== subroutine eh_fourier(nt,ne,dt,de,ti,ft,fr,fi) use inputoutput, only: wf_em implicit none integer,intent(in) :: nt,ne real(8),intent(in) :: dt,de real(8),intent(in) :: ti(nt),ft(nt) real(8),intent(out) :: fr(0:ne),fi(0:ne) integer :: ie,it real(8) :: ft_wf(nt) real(8) :: hw complex(8),parameter :: zi=(0.d0,1.d0) complex(8) :: zf !apply window function if(wf_em=='y') then do it=1,nt ft_wf(it)=ft(it)*( 1.0d0 -3.0d0*(ti(it)/maxval(ti(:)))**2.0d0 +2.0d0*(ti(it)/maxval(ti(:)))**3.0d0 ) end do else ft_wf(:)=ft(:) end if !Fourier transformation do ie=0,ne hw=dble(ie)*de; zf=(0.0d0,0.0d0); !$omp parallel !$omp do private(it) reduction( + : zf ) do it=1,nt zf=zf+exp(zi*hw*ti(it))*ft_wf(it) end do !$omp end do !$omp end parallel zf=zf*dt; fr(ie)=real(zf,8); fi(ie)=aimag(zf) end do end subroutine eh_fourier

src/maxwell/eh_finalize.f90

subroutine ed_gf_cluster_scalar(zeta,gf) complex(8) :: zeta complex(8),dimension(Nlat,Nlat,Nspin,Nspin,Norb,Norb),intent(inout) :: gf complex(8) :: green integer :: ispin integer :: ilat,jlat integer :: iorb,jorb integer :: iexc,Nexc integer :: ichan,Nchannel,istate,Nstates integer :: i,is,js complex(8) :: weight,de real(8) :: chan4 ! if(.not.allocated(impGmatrix))stop "ed_gf_cluster ERROR: impGmatrix not allocated!" ! if(ed_gf_symmetric)then chan4=0.d0 else chan4=1.d0 endif gf = zero ! do ilat=1,Nlat do jlat=1,Nlat do iorb=1,Norb do jorb=1,Norb do ispin=1,Nspin ! green = zero Nstates = size(impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state) do istate=1,Nstates Nchannel = size(impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel) do ichan=1,Nchannel Nexc = size(impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel(ichan)%poles) if(Nexc .ne. 0)then do iexc=1,Nexc weight = impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel(ichan)%weight(iexc) de = impGmatrix(ilat,jlat,ispin,ispin,iorb,jorb)%state(istate)%channel(ichan)%poles(iexc) green = green + weight/(zeta-de) enddo endif enddo enddo gf(ilat,jlat,ispin,ispin,iorb,jorb) = green enddo enddo enddo enddo enddo do ispin=1,Nspin do iorb=1,Norb do jorb=1,Norb do ilat=1,Nlat do jlat=1,Nlat if(ilat==jlat .and. iorb==jorb)cycle gf(ilat,jlat,ispin,ispin,iorb,jorb) = 0.5d0*(gf(ilat,jlat,ispin,ispin,iorb,jorb) & - (one-chan4*xi)*gf(ilat,ilat,ispin,ispin,iorb,iorb) - (one-chan4*xi)*gf(jlat,jlat,ispin,ispin,jorb,jorb)) enddo enddo enddo enddo enddo ! end subroutine ed_gf_cluster_scalar subroutine ed_gf_cluster_array(zeta,gf) complex(8),dimension(:) :: zeta complex(8),dimension(Nlat,Nlat,Nspin,Nspin,Norb,Norb,size(zeta)),intent(inout) :: gf complex(8),dimension(Nlat,Nlat,Nspin,Nspin,Norb,Norb) :: green integer :: ispin integer :: ilat,jlat integer :: iorb,jorb integer :: iexc,Nexc integer :: ichan,Nchannel,istate,Nstates integer :: i,is,js real(8) :: weight,de ! if(.not.allocated(impGmatrix))stop "ed_gf_cluster ERROR: impGmatrix not allocated!" ! gf = zero do i=1,size(zeta) call ed_gf_cluster_scalar(zeta(i),green) gf(:,:,:,:,:,:,i) = green enddo ! end subroutine ed_gf_cluster_array

ED_IO/gf_cluster.f90

module model_initialiser contains ! remesher: ! Function based on the origianl REMESH function ! Input (in COMMON blocks): ! H(,) - array of independent variables (in unnamed COMMON) ! DH(,) - list of changes in independent variables (in unnamed COMMON) ! KH - current number of meshpoints in H(,) ! Input options: ! KH2 - new number of meshpoints for this model ! JCH - switch to determine whether to construct new mesh spacing function ! and initialise composition or not. ! BMS - Total mass in the binary (EV) ! TM - New mass of the star ! P1 - New rotational period of the star (solid body) ! ECC - New eccentricity of the binary ! OA - New orbital angular momentum ! JSTAR - Labels which if the stars to initislise variables for ! JF - Switch to decide which variables to recompute ! TODO: this could be split up into different subroutines for each of the ! individual tasks. subroutine remesher( kh2, jch, bms, tm, p1, ecc, oa, jstar, jf ) use real_kind use constants use mesh use init_dat use settings use control use atomic_data use test_variables use eostate_types use structure_functions use current_model_properties use structure_variables use accretion_abundances use indices implicit none integer, intent(in) :: kh2, jch, jstar, jf real(double), intent(in) :: bms, tm, p1, ecc, oa integer :: nm_current, nm_next, nm_target integer :: ik, ikk, ih, i integer :: jo integer :: ksv, kt5 type(init_dat_settings) :: initdat real(double) :: nh(nvar,nm), ndh(nvar,nm), nndh(nvar,nm) real(double) :: q1, q2, dk, dty, vd, dtb, ageb, pcrit, wcrit, w1 real(double) :: si, vma, hpc logical :: equilibrium logical :: newmesh real(double) :: var(nvar), dvar(nvar), fn1(nfunc) real(double) :: qa(NM) type(eostate) :: eos real(double) :: xh0, xhe0, xc0, xn0, xo0, xne0, xmg0, xsi0, xfe0 real(double) :: che real(double) :: xh, xhe, xc, xn, xo, xne, xmg, xsi, xfe real(double) :: r real(double) :: qq ! Determines mesh-point metric: mesh-point interval real(double) :: qm ! Determines mesh-point metric: derivative of mesh spacing function wrt mass real(double) :: phim ! Derivative of gravitational potential with respect to m**(2/3) real(double) :: gmr ! Effective gravity at the surface(?) real(double) :: m3 ! m^(1/3), m is the mass coordinate ! Backup current settings so we can restore them when we're done dtb = dt ageb = age call push_init_dat(initdat, kh2, ksv, kt5, jch) ! Change settings to a reasonable set of defaults call load_basic_init_dat(ik, ksv, kt5, ik) kop = initdat%kop kx = 0; ky = 0; kz = 0; kth = 0 cmi = 0.0 crd = 0.0d0 kt1 = 100 kt2 = 0 kt3 = 0 kt4 = 100 kt5 = 100 ksv = 100 joc = 1 jter = 0 ! Set initial composition. ! The composition variables are NOT the actual mass fractions if we ! use non-integer atomic masses, so we have to compute what they are ! The composition variables used in the code are baryon number fractions ! We calculate this even if we don't want to do a ZAMS run because we need to ! know the baryon number densities of Fe, Si and Mg. ! Note that the actual abundances of Si and Fe are forced to by non-zero. ! This is because the EoS becomes poorly defined if there are not enough free ! electrons. It has no impact on the opacity and only a small impact on the ! mean molecular weight and the mass loss rate. che = 1.0d0 - ch - czs cn = 1.0d0 - cc - co - cne - cmg - csi - cfe xh0 = ch*cbn(1)/can(1) xhe0 = che*cbn(2)/can(2) xc0 = cc*czs*cbn(3)/can(3) xn0 = cn*czs*cbn(4)/can(4) xo0 = co*czs*cbn(5)/can(5) xne0 = cne*czs*cbn(6)/can(6) xmg0 = cmg*czs*cbn(7)/can(7) xsi0 = csi*czs*cbn(8)/can(8) xfe0 = cfe*czs*cbn(9)/can(9) xh = xh0 xhe = xhe0 xc = xc0 xn = xn0 xo = xo0 xne = xne0 xmg = xmg0 xsi = max(xsi0, csi*1.0d-4) xfe = max(xfe0, cfe*1.0d-4) vma = xh + xhe + xc + xn + xo + xne + xmg + xsi + xfe xh = xh / vma xhe = xhe / vma xc = xc / vma xn = xn / vma xo = xo / vma xne = xne / vma xfe = xfe / vma xsi = xsi / vma xmg = xmg / vma ! Initialise composition variables h(VAR_MG24, 1:kh) = xmg h(VAR_SI28, 1:kh) = xsi h(VAR_FE56, 1:kh) = xfe if ( jch >= 4 ) then h(VAR_H1,1:kh) = xh h(VAR_O16,1:kh) = xo h(VAR_HE4,1:kh) = xhe h(VAR_C12,1:kh) = xc h(VAR_NE20,1:kh) = xne h(VAR_N14,1:kh) = xn end if ! We should always do this for Mg24, since that's never stored if (use_mg24_eqn) then do ik=1, kh xmg = h(VAR_H1,ik) + h(VAR_HE4, ik) + h(VAR_C12, ik) + h(VAR_O16, ik) + h(VAR_NE20, ik) + h(VAR_N14, ik) + xfe + xsi h(VAR_MG24,ik) = max(0.0d0, 1.0 - xmg) end do end if ! Now we must also convert the abundances of the accreted material. If not ! set from init.dat, set from initial abundances. !> \todo FIXME: this will cause problems if we ever need to call REMESH twice in !! the same run !< x1ac = x1ac*cbn(1)/can(1) x4ac = x4ac*cbn(2)/can(2) x12ac = x12ac*cbn(3)/can(3) x14ac = x14ac*cbn(4)/can(4) x16ac = x16ac*cbn(5)/can(5) x20ac = x20ac*cbn(6)/can(6) x24ac = x24ac*cbn(7)/can(7) if (x1ac < 0.0) x1ac = xh0 if (x4ac < 0.0) x4ac = xhe0 if (x12ac < 0.0) x12ac = xc0 if (x14ac < 0.0) x14ac = xn0 if (x16ac < 0.0) x16ac = xo0 if (x20ac < 0.0) x20ac = xne0 if (x24ac < 0.0) x24ac = xmg0 vma = x1ac + x4ac + x12ac + x14ac + x16ac + x20ac + x24ac + xfe + xsi x1ac = x1ac / vma x4ac = x4ac / vma x12ac = x12ac / vma x14ac = x14ac / vma x16ac = x16ac / vma x20ac = x20ac / vma x24ac = x24ac / vma ! make sure XH is 1-everything else and abundancies sum to 1 x1ac = max(0.0d0, 1.0d0-(x4ac+x12ac+x14ac+x16ac+x20ac+x24ac+xfe0+xsi0)) ! Initialise accretion abundances for both stars xac(1, 1:2) = x1ac xac(2, 1:2) = x4ac xac(3, 1:2) = x12ac xac(4, 1:2) = x14ac xac(5, 1:2) = x16ac xac(6, 1:2) = x20ac xac(7, 1:2) = x24ac ! Set initial values of some other variables ! Typical mass-scale for the interior (needed for mesh spacing function) mc(jstar) = tm ! New mass after remesh var(:) = h(:, kh) dvar(:) = 0.0d0 call funcs1 ( kh, -2, var(:), dvar(:), fn1(:), eos, px=sx(:,2)) hpc = sqrt(eos%p/(cg * eos%rho * eos%rho)) mc(jstar) = 3.5d-33 * eos%rho * hpc**3 ! Initialise binary (orbital) parameters h(VAR_HORB, 1:kh) = oa ! New orbital angular momentum h(VAR_ECC, 1:kh) = ecc ! New eccentricity h(VAR_BMASS, 1:kh) = bms ! New total binary mass ! First: change the number of meshpoints or the mesh spacing function ! Determine if we need to calculate a new mesh (independent of the number ! of meshpoints) newmesh = .false. if (jch>3) newmesh = .true. ! Set new number of meshpoints nm_current = kh nm_target = kh2 nm_next = nm_target print *, 'nremesh from', nm_current, 'to', nm_target do while(newmesh .or. nm_current /= nm_next) newmesh = .false. print *, 'trying ', nm_next ! Store old model, so we can go back if needed nh(:,1:nm_current) = h(:,1:nm_current) ndh(:,1:nm_current) = dh(:,1:nm_current) ! Find values of mesh spacing function do ik=1, nm_current var(:) = h(:, ik) call funcs1 ( ik, -2, var(:), dvar(:), fn1(:)) ! Calculate stuff qa(ik) = qq ! Store mesh spacing function end do ! Interpolate model onto new mesh ! Find values of mesh spacing function at the external points ! Needed to calculate the new mesh, where the meshspacing gradient is ! constant. q1 = qa(1) q2 = (nm_next - 1.0d0)/(qa(nm_current) - qa(1)) do ik = 1, nm_current qa(ik) = (qa(ik) - q1)*q2 + 1.0d0 ! Adjust meshspacing end do ih = 1 do ik = 1, nm_next dk = 0.0d0 if ( ik == nm_next ) ih = nm_current if ( ik /= 1 .and. ik /= nm_next ) then ! Find the proper value for the meshspacing function at ! this meshpoint do i = 1, 50 ! Sanity check: abort if we're running out of the mesh ! boundary if ( ih+1 > nm_current) then write (0, *) & 'remesh running outside mesh boundary, aborting' stop end if if ( ik >= qa(ih + 1) ) ih = ih + 1 if ( ik < qa(ih + 1) ) exit ! Break loop end do dk = (ik - qa(ih))/(qa(ih + 1) - qa(ih)) end if ! Linear interpolation for new H and DH h(:, ik) = nh(:, ih) + dk*(nh(:, ih + 1) - nh(:, ih)) nndh(:, ik) = ndh(:, ih) + dk*(ndh(:, ih + 1) - ndh(:, ih)) end do !H(6, 1:KH) = 1.0/Q2 ! Gradient of mesh spacing ! Now see if the model will converge properly if we let the code iterate dty = dt/csy jo = 0 jnn = 0 kh = nm_next call printb ( jo, 1, 22 ) age = age - dty call nextdt ( dty, jo, 22 ) jnn = 1 dh(:, 1:nm_next) = 0.0d0 call solver(20, id, kt5, jo) if (jo == 0) then print *, 'converged ok' ! If yes, pick next number of meshpoints nm_current = nm_next nm_next = nm_target h(:,1:nm_current) = h(:,1:nm_current) + dh(:,1:nm_current) else ! If no, pick a smaller number of meshpoints in between the current value ! and the target and try again. nm_next = (nm_current+nm_next)/2 print *, 'cannot converge, reduce to ', nm_next ! Restore backup copies of H and DH h(:,1:nm_current) = nh(:,1:nm_current) dh(:,1:nm_current) = ndh(:,1:nm_current) end if end do print *, 'nremesh finished with ', nm_current, '(wanted ', nm_target,')' if (nm_current < nm_target) then print *, '*** nremesh failed ***' stop end if dh(:, 1:nm_current) = nndh(:,1:nm_current) dh(:, 1:nm_current) = 0.0 kh = nm_current ! Second: scale the mass vd = tm/h(VAR_MASS, 1) vd = 1.0 print *, 'scaling mass by factor', vd do while (abs(1.0d0 - vd) > 0.1) vd = max(0.9d0,min(vd, 1.1d0)) h(VAR_MASS, 1:kh) = vd*h(VAR_MASS, 1:kh) ! Scale mass kth = 1 jhold = 4 equilibrium = equilibrate_model(kt5) if (.not. equilibrium) then !H(:,1:nm_current) = NH(:,1:nm_current) print *, '*** failed ***' stop end if vd = tm/h(VAR_MASS, 1) end do h(VAR_MASS, 1:kh) = vd*h(VAR_MASS, 1:kh) ! Scale mass ! Third: scale the surface rotation rate ! Make the whole star rotate with the surface rate, if desired ! Convert rotational period -> rotation rate forall (ik=1:kh) h(VAR_OMEGA, ik) = 2.0*cpi/(h(VAR_OMEGA, ik) * csday) if (start_with_rigid_rotation) h(VAR_OMEGA,2:kh) = h(VAR_OMEGA,1) ! Now scale the surface rate, similar to the way the mass is scaled ! If we forced the star to rigid rotation before then this will set the ! rotation profile throughout the entire star wcrit = sqrt(cg*tm/exp(3*h(VAR_LNR, 1))) pcrit = 2.0*cpi/wcrit/csday w1 = 2.0*cpi/p1/csday print *, 'scaling rotation rate by factor', w1/h(13, 1) ! For rotation rates within 1/4 of critical be a bit more careful. Here we ! need to approach the desired rate smoothly, adjusting the structure of ! the star at each step. !> \todo FIXME: This should be more akin to the bit that updates the code on the !! new mesh, ie, not necessarily bring the star into equilibrium. !< if (wcrit/w1 < 4.0) then call set_solid_rotation print *, 'Period', p1, 'close to critical rate', pcrit vd = 0.25*wcrit/h(VAR_OMEGA,1) h(VAR_OMEGA, 1:kh) = vd*h(VAR_OMEGA, 1:kh) ! Scale rotation rate kth = 1 equilibrium = converge_model(kt5) do while (equilibrium .and. abs(w1 - h(VAR_OMEGA,1)) > 1.0d-6) vd = max(0.9d0,min(vd, 1.1d0)) h(VAR_OMEGA, 1:kh) = vd*h(VAR_OMEGA, 1:kh) jhold = 4 equilibrium = converge_model(kt5) vd = w1/h(VAR_OMEGA, 1) if (.not. equilibrium) then print *, '*** failed ***' stop end if end do end if vd = w1/h(VAR_OMEGA, 1) h(VAR_OMEGA, 1:kh) = vd*h(VAR_OMEGA, 1:kh) ! Scale rotational period ! Compute moment of inertia and surface potential if (jf /= 2) then q2 = h(VAR_QK,1) h(VAR_QK, 1:kh) = 1.0d0 h(VAR_INERT, 1:kh) = 1.0d0 ! Moment of Inertia h(VAR_PHI, 1:kh) = 0.0d0 ! Gravitational potential do ik = 2, kh ikk = kh + 2 - ik var(:) = h(:, ik) call funcs1 ( ik, -2, var(:), dvar(:), fn1(:), px=sx(:,ikk)) qq = sx(85, ikk) qm = sx(86, ikk) phim = sx(87, ikk) m3 = sx(89, ikk) r = sqrt(abs(exp(2.0d0*var(7)) - ct(8))) h(VAR_INERT, ik) = h(VAR_INERT, ik - 1) + r*r*m3/(abs(qm)) h(VAR_PHI, ik) = h(VAR_PHI, ik - 1) + phim/abs(qm) end do gmr = sx(88, kh+1) h(VAR_QK, 1:kh) = q2 h(VAR_PHIS, 1:kh) = - gmr ! Potential at the stellar surface si = h(VAR_INERT, kh) ! Total moment of inertia do ik = 1, kh h(VAR_INERT, ik) = (si - h(VAR_INERT, ik))*abs(q2) ! Moment of inertia of interior h(VAR_PHI, ik) = - gmr - h(VAR_PHI, ik)*abs(q2) ! Gravitational potential end do end if ! Total angular momentum integration h(VAR_TAM, 1:kh) = h(VAR_INERT, 1:kh)*h(VAR_OMEGA, 1) if (relax_loaded_model) then kth = 1 jhold = 4 print *, 'equilibrating...' equilibrium = equilibrate_model(kt5) if (.not. equilibrium) then print *, '*** failed ***' stop end if print *, 'done' dh(:, 1:kh) = 0.0 end if ! Restore old init.dat call pop_init_dat(initdat, ik, ksv, kt5, ik) dt = dtb age = ageb print *, 'Remesh done' end subroutine remesher function converge_model(kt5) use real_kind use mesh use constants use test_variables implicit none logical :: converge_model integer, intent(in) :: kt5 real(double) :: dty integer :: jo jo = 0 dty = dt/csy call solver(20, id, kt5, jo) if (jo == 0) then age = 0.0d0 call printb ( jo, 1, 22 ) h(:,1:kh) = h(:,1:kh) + dh(:,1:kh) call nextdt ( dty, jo, 22 ) end if converge_model = (jo == 0) end function converge_model function equilibrate_model(kt5) use real_kind use mesh use constants use test_variables implicit none logical :: equilibrate_model integer, intent(in) :: kt5 real(double) :: dty integer :: i, jo jo = 0 do i=1, 40 dty = dt/csy call solver(20, id, kt5, jo) if (jo /= 0) exit age = 0.0d0 call printb ( jo, 1, 22 ) h(:,1:kh) = h(:,1:kh) + dh(:,1:kh) call nextdt ( dty, jo, 22 ) if (abs(lth) < 1.0d-8 .or. lth < 0.0d0) exit end do equilibrate_model = .false. if (lth < 1.0d-6 .and. jo == 0) equilibrate_model = .true. end function equilibrate_model end module model_initialiser

src/amuse/community/evtwin/src/trunk/code/nremesh.f90

SUBROUTINE MF_LGTORI & (xintg,r,drdc,nderiv) implicit complex (a-h,o-z) real omega,wavenr, & rmax,xmgsq,cthrsh,cmgsq,delta(4) common/mf_flag/iexact,iovflo,kexact,lowg,nodivd,noevct, & nofinl,nointg,nomesh,notlin & /mf_lgfl/lgflag(4) & /mf_mode/theta,c,s,csq,ssq,omega,wavenr,ideriv & /mf_rmtx/x(4),dxdc(4),dxdh(4),dhdxdc(4) dimension xintg(8),r(4),drdc(4) data delta/1.0,0.0,0.0,1.0/,cthrsh/0.03/,rmax/50.0/ cmgsq=REAL(c)**2+AIMAG(c)**2 do i=1,4 if (lgflag(i) .eq. 0) then xmgsq=REAL(xintg(i))**2+AIMAG(xintg(i))**2 if ((xmgsq .gt. rmax**2 .and. cmgsq .ge. cthrsh**2) & .or. & (xmgsq .gt. 1.e3*rmax**2 .and. cmgsq .lt. cthrsh**2)) & then iovflo=1 RETURN end if x(i)=xintg(i) if (nderiv .eq. 1) dxdc(i)=xintg(i+4) else if (ABS(REAL(xintg(i))) .gt. 10.) then iovflo=1 RETURN end if r(i)=EXP(xintg(i)) x(i)=(r(i)+delta(i))/c if (nderiv .eq. 1) then dlnrdc=xintg(i+4) drdc(i)=r(i)*dlnrdc dxdc(i)=(drdc(i)-x(i))/c end if end if end do RETURN END ! MF_LGTORI

LWPCv21/lib/mf_lgtori.for

C$Procedure ZZRYTPDT ( DSK, ray touches planetodetic element ) SUBROUTINE ZZRYTPDT ( VERTEX, RAYDIR, BOUNDS, . CORPAR, MARGIN, NXPTS, XPT ) C$ Abstract C C SPICE Private routine intended solely for the support of SPICE C routines. Users should not call this routine directly due to the C volatile nature of this routine. C C Find nearest intersection to a given ray's vertex of the ray and C a planetodetic volume element. If the vertex is inside the C element, the vertex is considered to be the solution. C C In the computation performed by this routine, ellipsoidal C surfaces are used, instead of surfaces of constant altitude, to C define boundaries of planetodetic volume elements. The element C defined by the input boundaries is contained in the element C bounded by the input latitude and longitude boundaries and by the C ellipsoidal surfaces. C C$ Disclaimer C C THIS SOFTWARE AND ANY RELATED MATERIALS WERE CREATED BY THE C CALIFORNIA INSTITUTE OF TECHNOLOGY (CALTECH) UNDER A U.S. C GOVERNMENT CONTRACT WITH THE NATIONAL AERONAUTICS AND SPACE C ADMINISTRATION (NASA). THE SOFTWARE IS TECHNOLOGY AND SOFTWARE C PUBLICLY AVAILABLE UNDER U.S. EXPORT LAWS AND IS PROVIDED "AS-IS" C TO THE RECIPIENT WITHOUT WARRANTY OF ANY KIND, INCLUDING ANY C WARRANTIES OF PERFORMANCE OR MERCHANTABILITY OR FITNESS FOR A C PARTICULAR USE OR PURPOSE (AS SET FORTH IN UNITED STATES UCC C SECTIONS 2312-2313) OR FOR ANY PURPOSE WHATSOEVER, FOR THE C SOFTWARE AND RELATED MATERIALS, HOWEVER USED. C C IN NO EVENT SHALL CALTECH, ITS JET PROPULSION LABORATORY, OR NASA C BE LIABLE FOR ANY DAMAGES AND/OR COSTS, INCLUDING, BUT NOT C LIMITED TO, INCIDENTAL OR CONSEQUENTIAL DAMAGES OF ANY KIND, C INCLUDING ECONOMIC DAMAGE OR INJURY TO PROPERTY AND LOST PROFITS, C REGARDLESS OF WHETHER CALTECH, JPL, OR NASA BE ADVISED, HAVE C REASON TO KNOW, OR, IN FACT, SHALL KNOW OF THE POSSIBILITY. C C RECIPIENT BEARS ALL RISK RELATING TO QUALITY AND PERFORMANCE OF C THE SOFTWARE AND ANY RELATED MATERIALS, AND AGREES TO INDEMNIFY C CALTECH AND NASA FOR ALL THIRD-PARTY CLAIMS RESULTING FROM THE C ACTIONS OF RECIPIENT IN THE USE OF THE SOFTWARE. C C$ Required_Reading C C DSK C C$ Keywords C C GEOMETRY C INTERCEPT C INTERSECTION C RAY C SURFACE C TOPOGRAPHY C C$ Declarations IMPLICIT NONE INCLUDE 'dsktol.inc' DOUBLE PRECISION VERTEX ( 3 ) DOUBLE PRECISION RAYDIR ( 3 ) DOUBLE PRECISION BOUNDS ( 2, 3 ) DOUBLE PRECISION CORPAR ( * ) DOUBLE PRECISION MARGIN INTEGER NXPTS DOUBLE PRECISION XPT ( 3 ) INTEGER LONIDX PARAMETER ( LONIDX = 1 ) INTEGER LATIDX PARAMETER ( LATIDX = 2 ) INTEGER ALTIDX PARAMETER ( ALTIDX = 3 ) C$ Brief_I/O C C VARIABLE I/O DESCRIPTION C -------- --- -------------------------------------------------- C VERTEX I Ray's vertex. C RAYDIR I Ray's direction vector. C BOUNDS I Bounds of planetodetic volume element. C CORPAR I Coordinate parameters. C MARGIN I Margin used for element expansion. C NXPTS O Number of intercept points. C XPT O Intercept. C LONIDX P Longitude index. C LATIDX P Latitude index. C ALTIDX P Altitude index. C C$ Detailed_Input C C VERTEX, C RAYDIR are, respectively, the vertex and direction vector of C the ray to be used in the intercept computation. C C Both the vertex and ray direction must be represented C in the reference frame to which the planetodetic C volume element boundaries correspond. The vertex is C considered to be an offset from the center of the C reference frame associated with the element. C C BOUNDS is a 2x3 array containing the bounds of a planetodetic C volume element. Normally this is the coverage boundary C of a DSK segment. In the element C C BOUNDS(I,J) C C J is the coordinate index. J is one of C C { LONIDX, LATIDX, ALTIDX } C C I is the bound index. C C I = 1 -> lower bound C I = 2 -> upper bound C C If the longitude upper bound is not greater than the C longitude lower bound, a value greater than the upper C bound by 2*pi is used for the comparison. C C RE, C F are, respectively, the equatorial radius and C flattening coefficient associated with the C planetodetic coordinate system in which the input C volume element is described. C C C MARGIN is a scale factor used to effectively expand the C segment boundaries so as to include intersections C that lie slightly outside the volume element. C C C$ Detailed_Output C C XPT is the intercept of the ray on the surface described C by the segment, if such an intercept exists. If the C ray intersects the surface at multiple points, the C one closest to the ray's vertex is selected. XPT is C valid if and only if FOUND is .TRUE. C C XPT is expressed in the reference frame associated C with the inputs VERTEX and RAYDIR. XPT represents C an offset from the origin of the coordinate system. C C XPT is valid only if NXPTS is set to 1. C C C NXPTS is the number of intercept points of the ray and C the volume element. C C Currently there are only two possible values for C NXPTS: C C 1 for an intersection C 0 for no intersection C C If the vertex is inside the element, NXPTS is C set to 1. C C$ Parameters C C LONIDX is the index of longitude in the second dimension of C BOUNDS. C C LATIDX is the index of latitude in the second dimension of C BOUNDS. C C ALTIDX is the index of altitude in the second dimension of C BOUNDS. C$ Exceptions C C 1) If MARGIN is negative, the error SPICE(VALUEOUTOFRANGE) C is signaled. C C 2) If the input ray direction vector is zero, the error C SPICE(ZEROVECTOR) will be signaled. C C 3) Any errors that occur while calculating the ray-surface C intercept will be signaled by routines in the call tree C of this routine. C C$ Files C C None. However, the input segment boundaries normally have C been obtained from a loaded DSK file. C C$ Particulars C C This routine sits on top of data DSK type-specific ray-segment C intercept routines such as DSKX02. C C$ Examples C C See usage in ZZDSKBUX. C C$ Restrictions C C This is a private routine. It is meant to be used only by the DSK C subsystem. C C$ Literature_References C C None. C C$ Author_and_Institution C C N.J. Bachman (JPL) C C$ Version C C- SPICELIB Version 1.0.0, 19-JAN-2017 (NJB) C C-& C$ Index_Entries C C find intercept of ray on planetodetic volume element C C-& C C SPICELIB functions C DOUBLE PRECISION DPMAX DOUBLE PRECISION HALFPI DOUBLE PRECISION VDIST DOUBLE PRECISION VDOT DOUBLE PRECISION VNORM DOUBLE PRECISION VSEP LOGICAL FAILED LOGICAL RETURN LOGICAL VZERO LOGICAL ZZPDPLTC C C Local parameters C C C Altitude expansion factor: C DOUBLE PRECISION RADFAC PARAMETER ( RADFAC = 1.1D0 ) C C Element boundary indices: C INTEGER WEST PARAMETER ( WEST = 1 ) INTEGER EAST PARAMETER ( EAST = 2 ) INTEGER SOUTH PARAMETER ( SOUTH = 1 ) INTEGER NORTH PARAMETER ( NORTH = 2 ) INTEGER LOWER PARAMETER ( LOWER = 1 ) INTEGER UPPER PARAMETER ( UPPER = 2 ) INTEGER NONE PARAMETER ( NONE = 0 ) C C Local variables C DOUBLE PRECISION AMNALT DOUBLE PRECISION AMXALT DOUBLE PRECISION ANGLE DOUBLE PRECISION APEX ( 3 ) DOUBLE PRECISION DIST DOUBLE PRECISION EASTB ( 3 ) DOUBLE PRECISION EBACK ( 3 ) DOUBLE PRECISION EMAX DOUBLE PRECISION EMIN DOUBLE PRECISION ENDPT2 ( 3 ) DOUBLE PRECISION F DOUBLE PRECISION LONCOV DOUBLE PRECISION MAXALT DOUBLE PRECISION MAXLAT DOUBLE PRECISION MAXLON DOUBLE PRECISION MAXR DOUBLE PRECISION MINALT DOUBLE PRECISION MINLAT DOUBLE PRECISION MINLON DOUBLE PRECISION MNDIST DOUBLE PRECISION NEGDIR ( 3 ) DOUBLE PRECISION PMAX DOUBLE PRECISION PMIN DOUBLE PRECISION RE DOUBLE PRECISION RP DOUBLE PRECISION S DOUBLE PRECISION SRFX ( 3 ) DOUBLE PRECISION UDIR ( 3 ) DOUBLE PRECISION VTXANG DOUBLE PRECISION VTXLVL DOUBLE PRECISION VTXOFF ( 3 ) DOUBLE PRECISION WBACK ( 3 ) DOUBLE PRECISION WESTB ( 3 ) DOUBLE PRECISION XPT2 ( 3 ) DOUBLE PRECISION XINCPT DOUBLE PRECISION YINCPT DOUBLE PRECISION Z ( 3 ) INTEGER NX LOGICAL FOUND LOGICAL INSIDE LOGICAL XIN LOGICAL XVAL1 LOGICAL XVAL2 C C Saved variables C SAVE Z C C Initial values C DATA Z / 0.D0, 0.D0, 1.D0 / IF ( RETURN() ) THEN RETURN END IF CALL CHKIN ( 'ZZRYTPDT' ) IF ( MARGIN .LT. 0.D0 ) THEN CALL SETMSG ( 'Margin must be non-negative but was #.' ) CALL ERRDP ( '#', MARGIN ) CALL SIGERR ( 'SPICE(VALUEOUTOFRANGE)' ) CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( VZERO(RAYDIR) ) THEN CALL SETMSG ( 'The ray''s direction was the zero vector.' ) CALL SIGERR ( 'SPICE(ZEROVECTOR)' ) CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Determine whether the vertex is inside the element. C CALL ZZINPDT ( VERTEX, BOUNDS, CORPAR, MARGIN, NONE, INSIDE ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( INSIDE ) THEN C C We know the answer. C NXPTS = 1 CALL VEQU ( VERTEX, XPT ) CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Get semi-axis lengths of the reference spheroid. C RE = CORPAR(1) F = CORPAR(2) RP = RE * ( 1.D0 - F ) C C Extract the segment's coordinate bounds into easily C readable variables. C MINALT = BOUNDS( LOWER, ALTIDX ) MAXALT = BOUNDS( UPPER, ALTIDX ) C C Normalize the longitude bounds. After this step, the bounds will C be in order and differ by no more than 2*pi. C CALL ZZNRMLON( BOUNDS(WEST,LONIDX), BOUNDS(EAST,LONIDX), ANGMRG, . MINLON, MAXLON ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF MINLAT = BOUNDS( SOUTH, LATIDX ) MAXLAT = BOUNDS( NORTH, LATIDX ) C C Compute adjusted altitude bounds, taking margin into C account. C AMNALT = MINALT - MARGIN * ABS(MINALT) AMXALT = MAXALT + MARGIN * ABS(MAXALT) C C Generate semi-axis lengths of inner and outer bounding C ellipsoids. C IF ( RE .GE. RP ) THEN C C The reference spheroid is oblate. C CALL ZZELLBDS ( RE, RP, AMXALT, AMNALT, . EMAX, PMAX, EMIN, PMIN ) ELSE C C The reference spheroid is prolate. C CALL ZZELLBDS ( RP, RE, AMXALT, AMNALT, . PMAX, EMAX, PMIN, EMIN ) END IF IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C The vertex is outside the element. C C Indicate no intersection to start. C NXPTS = 0 C C We'll use a unit length copy of the ray's direction vector. C CALL VHAT ( RAYDIR, UDIR ) C C Initialize the distance to the closest solution. We'll keep track C of this quantity in order to compare competing solutions. C MNDIST = DPMAX() C C Find the intersection of the ray and outer bounding ellipsoid, if C possible. Often this intersection is the closest to the vertex. C If the intersection exists and is on the boundary of the element, C it's a winner. C CALL SURFPT ( VERTEX, UDIR, EMAX, EMAX, PMAX, SRFX, FOUND ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( .NOT. FOUND ) THEN C C There are no intersections. The ray cannot hit the volume C element. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C The ray hits the outer bounding ellipsoid. See whether C the longitude and latitude are within bounds, taking C the margin into account. Exclude the altitude coordinate C from testing. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, ALTIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C This solution is a candidate. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 C C Find the level surface parameter of the vertex relative C to the adjusted outer bounding ellipsoid. C VTXLVL = ( VERTEX(1)/EMAX )**2 . + ( VERTEX(2)/EMAX )**2 . + ( VERTEX(3)/PMAX )**2 IF ( VTXLVL .GT. 1.D0 ) THEN C C The vertex is outside this ellipsoid, and the DSK segment C lies within the ellipsoid. C C No other intersection can be closer to the vertex; C we don't need to check the other surfaces. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN ELSE C C We have a possible solution. C MNDIST = VDIST( VERTEX, XPT ) END IF END IF C C So far there may be a candidate solution. We'll try the latitude C boundaries next. C C For testing intersections with the latitude boundaries, we'll C need a far endpoint for the line segment on which to perform the C test. C MAXR = MAX ( EMAX, PMAX ) S = VNORM(VERTEX) + RADFAC * MAXR CALL VLCOM ( 1.D0, VERTEX, S, UDIR, ENDPT2 ) C C Now try the upper latitude bound. We can skip this test C if the upper bound is pi/2 radians. C IF ( MAXLAT .LT. HALFPI() ) THEN C C Let ANGLE be the angular separation of the surface of latitude C MAXLAT and the +Z axis. Note that the surface might be the C lower nappe of the cone. C ANGLE = MAX ( 0.D0, HALFPI() - MAXLAT ) C C Compute the Z coordinate of the apex of the latitude cone. C CALL ZZELNAXX ( RE, RP, MAXLAT, XINCPT, YINCPT ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF APEX(1) = 0.D0 APEX(2) = 0.D0 APEX(3) = YINCPT C C Find the offset of the ray's vertex from the cone's apex, C and find the angular separation of the offset from the +Z C axis. This separation enables us to compare the latitude of C the vertex to the latitude boundary without making a RECGEO C call to compute the planetodetic coordinates of the vertex. C C (The comparison will be done later.) C CALL VSUB ( VERTEX, APEX, VTXOFF ) VTXANG = VSEP ( VTXOFF, Z ) C C Check for intersection of the ray with the latitude cone. C CALL INCNSG ( APEX, Z, ANGLE, VERTEX, ENDPT2, NX, SRFX, XPT2 ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Unlike the case of latitudinal coordinates, for planetodetic C coordinates, the surface of the latitude cone does not C coincide with the set of points having that latitude (which is C equal to pi/2 - the cone's angular separation from the +Z C axis). The subset of the cone having the specified latitude is C truncated by the X-Y plane. If we ignore round-off errors, we C can assert that the Z-coordinate of a point having the given C planetodetic latitude must match the direction of the nappe of C the cone: positive if ANGLE < pi/2, negative if ANGLE > pi/2, C and 0 if ANGLE = pi/2. C C However, we cannot ignore round-off errors. For a cone having C angle from its central axis of nearly pi/2, it's possible for C a valid ray-cone intercept to be on the "wrong" side of the C X-Y plane due to round-off errors. So we use a more robust C check to determine whether an intercept should be considered C to have the same latitude as the cone. C C Check all intercepts. C IF ( NX .GT. 0 ) THEN C C Check the first intercept. C XVAL1 = ZZPDPLTC( RE, F, SRFX, MAXLAT ) XVAL2 = .FALSE. IF ( NX .EQ. 2 ) THEN C C Check the second intercept. C XVAL2 = ZZPDPLTC( RE, F, XPT2, MAXLAT ) END IF IF ( XVAL1 .AND. ( .NOT. XVAL2 ) ) THEN NX = 1 ELSE IF ( XVAL2 .AND. (.NOT. XVAL1 ) ) THEN C C Only the second solution is valid. Overwrite C the first. C NX = 1 CALL VEQU( XPT2, SRFX ) ELSE IF ( ( .NOT. XVAL1 ) .AND. ( .NOT. XVAL2 ) ) THEN C C Neither solution is valid. C NX = 0 END IF END IF IF ( NX .GE. 1 ) THEN C C The ray intercept SRFX lies on the upper latitude boundary. C C See whether SRFX meets the longitude and proxy altitude C constraints. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C SRFX is a candidate solution. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( SRFX, XPT ) NXPTS = 1 IF ( VTXANG .LT. ANGLE ) THEN IF ( ( MAXLAT .LT. 0.D0 ) . .OR. ( VERTEX(3) .GT. 0.D0 ) ) THEN C C If MAXLAT is negative, the vertex offset C being outside the cone is enough to C guarantee the planetodetic latitude of the C vertex is greater than that of the cone. C C If MAXLAT is non-negative, the angle of the C vertex offset relative to the +Z axis is not C enough; we need the vertex to lie above the C X-Y plane as well. C C Getting here means one of these conditions C was met. C C Since the latitude of the vertex is greater C than MAXLAT, this is the best solution, since C the volume element is on the other side of the C maximum latitude boundary. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF END IF C C This is the best solution seen so far, but we C need to check the remaining boundaries. C MNDIST = DIST END IF END IF IF ( NX .EQ. 2 ) THEN C C Check the second solution as well. C CALL ZZINPDT ( XPT2, BOUNDS, CORPAR, . MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C XPT2 is a candidate solution. C DIST = VDIST( VERTEX, XPT2 ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( XPT2, XPT ) NXPTS = 1 MNDIST = DIST C C This is the best solution seen so far. C However, it's not necessarily the best C solution. So we continue. C END IF END IF END IF C C We've handled the second root, if any. C END IF C C We're done with the upper latitude boundary. C END IF C C Try the lower latitude bound. We can skip this test if the lower C bound is -pi/2 radians. C IF ( MINLAT .GT. -HALFPI() ) THEN C C Let ANGLE be the angular separation of the surface C of latitude MINLAT and the +Z axis. Note that the C surface might be the lower nappe of the cone. C ANGLE = HALFPI() - MINLAT C Compute the Z coordinate of the apex of the latitude cone. C CALL ZZELNAXX ( RE, RP, MINLAT, XINCPT, YINCPT ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF APEX(1) = 0.D0 APEX(2) = 0.D0 APEX(3) = YINCPT CALL INCNSG ( APEX, Z, ANGLE, VERTEX, . ENDPT2, NX, SRFX, XPT2 ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF C C Find the offset of the ray's vertex from the cone's apex, C and find the angular separation of the offset from the +Z C axis. This separation enables us to compare the latitude of C the vertex to the latitude boundary without making a RECGEO C call to compute the planetodetic coordinates of the vertex. C C (The comparison will be done later.) C CALL VSUB ( VERTEX, APEX, VTXOFF ) VTXANG = VSEP ( VTXOFF, Z ) C C Check whether the latitude of the intercept can be C considered to match that of the cone. C IF ( NX .GT. 0 ) THEN C C Check the first intercept. C XVAL1 = ZZPDPLTC( RE, F, SRFX, MINLAT ) XVAL2 = .FALSE. IF ( NX .EQ. 2 ) THEN C C Check the second intercept. C XVAL2 = ZZPDPLTC( RE, F, XPT2, MINLAT ) END IF IF ( XVAL1 .AND. ( .NOT. XVAL2 ) ) THEN NX = 1 ELSE IF ( XVAL2 .AND. (.NOT. XVAL1 ) ) THEN C C Only the second solution is valid. Overwrite C the first. C NX = 1 CALL VEQU( XPT2, SRFX ) ELSE IF ( ( .NOT. XVAL1 ) .AND. ( .NOT. XVAL2 ) ) THEN C C Neither solution is valid. C NX = 0 END IF END IF IF ( NX .GE. 1 ) THEN C C The ray intercept SRFX lies on the lower latitude boundary. C C See whether SRFX meets the longitude and proxy altitude C constraints. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C SRFX is a candidate solution. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( SRFX, XPT ) NXPTS = 1 IF ( VTXANG .GT. ANGLE ) THEN IF ( ( MINLAT .GT. 0.D0 ) . .OR. ( VERTEX(3) .LT. 0.D0 ) ) THEN C C If MINLAT is positive, the vertex offset C being outside the cone is enough to C guarantee the planetodetic latitude of the C vertex is less than that of the cone. C C If MINLAT is non-positive, the angle of the C vertex offset relative to the +Z axis is not C enough; we need the vertex to lie below the C X-Y plane as well. C C Getting here means one of these conditions C was met. C C Since the latitude of the vertex is less than C than MINLAT, this is the best solution, since C the volume element is on the other side of the C minimum latitude boundary. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF END IF C C This is the best solution seen so far, but we C need to check the remaining boundaries. MNDIST = DIST END IF END IF IF ( NX .EQ. 2 ) THEN C C Check the second solution as well. C CALL ZZINPDT ( XPT2, BOUNDS, CORPAR, . MARGIN, LATIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C XPT2 is a candidate solution. C DIST = VDIST( VERTEX, XPT2 ) IF ( DIST .LT. MNDIST ) THEN CALL VEQU ( XPT2, XPT ) NXPTS = 1 MNDIST = DIST C C This is the best solution seen so far. C However, it's not necessarily the best C solution. So we continue. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF END IF END IF END IF C C We're done with the lower latitude boundary. C END IF C C Perform longitude boundary checks if the coverage is not C 2*pi radians. Note that MAXLON > MINLON at this point. C LONCOV = MAXLON - MINLON IF ( COS(LONCOV) .LT. 1.D0 ) THEN C C We have distinct longitude boundaries. Go to work. C C C Check the longitude boundaries. Try the plane of western C longitude first. C CALL VPACK ( SIN(MINLON), -COS(MINLON), 0.D0, WESTB ) S = RADFAC * ( VNORM(VERTEX) + MAXR ) CALL ZZINRYPL ( VERTEX, UDIR, WESTB, 0.D0, S, NX, SRFX ) IF ( NX .EQ. 1 ) THEN C C We have one point of intersection. Determine whether it's a C candidate solution. Don't use longitude in the following C inclusion test. Note that we'll perform a separate check C later in place of the longitude check. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LONIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C Make sure the intercept is not too far on the C "wrong" side of the Z axis. C CALL UCRSS ( WESTB, Z, WBACK ) IF ( VDOT(SRFX, WBACK) .LT. (MARGIN*MAXR) ) THEN C C The intercept is either on the same side of the Z C axis as the west face of the segment, or is very C close to the Z axis. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 MNDIST = DIST END IF END IF END IF END IF C C We're done with the western boundary. C C C Try the plane of eastern longitude next. C CALL VPACK ( -SIN(MAXLON), COS(MAXLON), 0.D0, EASTB ) CALL ZZINRYPL ( VERTEX, UDIR, EASTB, 0.D0, S, NX, SRFX ) IF ( NX .EQ. 1 ) THEN C C We have one point of intersection. Determine whether it's a C candidate solution. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, LONIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN C C Make sure the intercept is not too far on the "wrong" C side of the Z axis. C CALL UCRSS ( Z, EASTB, EBACK ) IF ( VDOT(SRFX, EBACK) .LT. (MARGIN*MAXR) ) THEN C C The intercept is either on the same side of the Z C axis as the east face of the segment, or is very C close to the Z axis. C DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 MNDIST = DIST END IF END IF END IF END IF END IF C C End of longitude boundary checks. C C C Find the intersection of the ray and lower bounding C ellipsoid, if possible. C CALL SURFPT ( VERTEX, UDIR, EMIN, EMIN, PMIN, SRFX, FOUND ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( FOUND ) THEN C C See whether this solution is in the element. C CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, ALTIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 MNDIST = DIST END IF END IF END IF C C Unlike the outer ellipsoid, either intersection of the ray with C the inner ellipsoid might be a valid solution. We'll test for the C case where the intersection farther from the ray's vertex is the C correct one. C CALL VMINUS( UDIR, NEGDIR ) CALL SURFPT ( ENDPT2, NEGDIR, EMIN, EMIN, PMIN, SRFX, FOUND ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( FOUND ) THEN CALL ZZINPDT ( SRFX, BOUNDS, CORPAR, MARGIN, ALTIDX, XIN ) IF ( FAILED() ) THEN CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END IF IF ( XIN ) THEN DIST = VDIST( VERTEX, SRFX ) IF ( DIST .LT. MNDIST ) THEN C C Record the intercept, distance, and surface index. C CALL VEQU ( SRFX, XPT ) NXPTS = 1 C C There's no need to update MNDIST at this point. C END IF END IF END IF C C NXPTS and XPT are set. C CALL CHKOUT ( 'ZZRYTPDT' ) RETURN END

source/nasa_f/zzrytpdt.f

SUBROUTINE TG_VI2F ( vdtm, idtm, fdtm, lnth, iret ) C************************************************************************ C* DE_VI2F * C* * C* This subroutine converts a forecast valid time of the form * C* YYMMDD/HHNN and an initial GEMPAK time of the form yymmdd/hhnn * C* into a proper GEMPAK forecast time stamp of the form * C* yymmdd/hhnnFhhhnn. * C* * C* TG_VI2F ( VDTM, IDTM, FDTM, LNTH, IRET ) * C* * C* Input parameters: * C* VDTM CHAR* Valid GEMPAK time, YYMMDD/HHNN * C* IDTM CHAR* Init. GEMPAK time, yymmdd/hhnn * C* * C* Output parameters: * C* FDTM CHAR* Forecast time, yymmdd/hhnn * C* LNTH INTEGER Length of string FDTM * C* IRET INTEGER Return code * C* 0 = normal return * C* -1 = invalid date or time * C* -3 = invalid forecast time * C** * C* Log: * C* T. Lee/SAIC 1/05 * C************************************************************************ CHARACTER*(*) vdtm, idtm, fdtm CHARACTER sfh*3, snn*2 C------------------------------------------------------------------------ iret = 0 lnth = 0 C C* Return if VDTM or IDTM is blank, C IF ( ( vdtm .eq. ' ' ) .or. ( idtm .eq. ' ' ) ) THEN iret = -1 fdtm = ' ' RETURN END IF C C* Compute the difference between valid time and initial time. C CALL TG_DIFF ( vdtm, idtm, nmin, iret ) IF ( iret .ne. 0 ) RETURN C IF ( ( nmin .lt. 0 ) .or. ( nmin .ge. 60000 ) ) THEN iret = -3 RETURN END IF C ifh = nmin / 60 nn = MOD ( nmin, 60 ) WRITE ( sfh, 50, IOSTAT = ier ) ifh 50 FORMAT ( I3.3 ) WRITE ( snn, 60, IOSTAT = ier ) nn 60 FORMAT ( I2.2 ) C C* Construct the forecast time stamp. C CALL ST_LSTR ( idtm, lstr, ier ) fdtm = idtm ( :lstr ) // 'F' // sfh // snn C CALL ST_LSTR ( fdtm, lnth, ier ) C* RETURN END

gempak/source/gemlib/tg/tgvi2f.f

! Copyright (c) 2013, NVIDIA CORPORATION. All rights reserved. ! ! Licensed under the Apache License, Version 2.0 (the "License"); ! you may not use this file except in compliance with the License. ! You may obtain a copy of the License at ! ! http://www.apache.org/licenses/LICENSE-2.0 ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. ! ! Tests F2003 defined I/O (recursive read) module person_module logical rslt(10), expect(10) integer :: cnt type :: person character(len=20) :: name integer :: age contains procedure :: my_read => rf procedure :: my_write => wf generic :: READ(FORMATTED) => my_read generic :: WRITE(FORMATTED) => my_write end type type, extends(person) :: employee integer id real salary contains procedure :: my_read => rf2 procedure :: my_write => wf2 end type contains recursive subroutine rf(dtv, unit, iotype, vlist, iostat, iomsg) class(person), intent(inout) :: dtv integer, intent(in) :: unit character(len=*),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=*), intent(inout) :: iomsg character(len=9) :: pfmt read (unit, *, iostat=iostat) dtv%name, dtv%age if (iostat .eq. 0) then cnt = cnt + 1 rslt(cnt) = dtv%age .eq. 40+(cnt-1) read(unit, *) dtv endif end subroutine subroutine wf(dtv, unit, iotype, vlist, iostat, iomsg) class(person), intent(inout) :: dtv integer, intent(in) :: unit character(len=*),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=*), intent(inout) :: iomsg character(len=9) :: pfmt write (unit, *) dtv%name, dtv%age end subroutine subroutine wf2(dtv, unit, iotype, vlist, iostat, iomsg) class(employee), intent(inout) :: dtv integer, intent(in) :: unit character(len=*),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=*), intent(inout) :: iomsg character(len=9) :: pfmt write (unit, *) dtv%name, dtv%age, dtv%id, dtv%salary end subroutine recursive subroutine rf2(dtv, unit, iotype, vlist, iostat, iomsg) class(employee), intent(inout) :: dtv integer, intent(in) :: unit character(len=*),intent(in) :: iotype integer, intent(in) :: vlist(:) integer, intent(out) :: iostat character (len=*), intent(inout) :: iomsg character(len=9) :: pfmt read (unit, *, iostat=iostat) dtv%name, dtv%age, dtv%id, dtv%salary if (iostat .eq. 0) then cnt = cnt + 1 rslt(cnt) = dtv%id .eq. 100+(cnt-1) read(unit, *) dtv endif end subroutine end module use person_module integer id, members type(employee) :: chairman chairman%name='myname' chairman%age=40 chairman%id = 100 chairman%salary = 0 rslt = .false. expect = .true. open(11, file='io16.output', status='replace') do i=1,10 write(11, *) chairman chairman%id = chairman%id + 1 enddo cnt = 0 open(11, file='io16.output', position='rewind') read(11, *) chairman close(11) call check(rslt, expect, 10) end

test/f90_correct/src/io16.f90

subroutine blue(value,hexrep,bfrac) C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% C % C Copyright (C) 1996, The Board of Trustees of the Leland Stanford % C Junior University. All rights reserved. % C % C The programs in GSLIB are distributed in the hope that they will be % C useful, but WITHOUT ANY WARRANTY. No author or distributor accepts % C responsibility to anyone for the consequences of using them or for % C whether they serve any particular purpose or work at all, unless he % C says so in writing. Everyone is granted permission to copy, modify % C and redistribute the programs in GSLIB, but only under the condition % C that this notice and the above copyright notice remain intact. % C % C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% c----------------------------------------------------------------------- c c Provided with a real value ``value'' this subroutine returns the blue c portion of the color specification. c c Note common block "color" and call to "hexa" c c----------------------------------------------------------------------- real value character hexrep*2,hexa*2 common /color/ cmin,cmax,cint(4),cscl hexrep = '00' if(value.lt.cint(2))then c c Scale it between (255,255): c integ = 255 else if((value.ge.cint(2)).and.(value.lt.cint(3)))then c c Scale it between (255,0): c integ = int((cint(3)-value)/(cint(3)-cint(2))*255.) if(integ.gt.255) integ = 255 if(integ.lt.0) integ = 0 else if(value.ge.cint(3))then c c Scale it between (0,0): c integ = 0 end if c c Establish coding and return: c bfrac = real(integ) / 255. hexrep = hexa(integ) return end

visim/visim_src/gslib/blue.f

SUBROUTINE DEG2CHR(DEGS,LATLON,CHAR) C****************************************************************** C# SUB DEG2CHR(DEGS,LATLON,CHAR) Degrees to CHARACTER (xxxNxx'xx") C Convert degrees to characters for output. C DEGS = input degrees (may be -180 to 180 or 0 to 360) C LATLON=0= latitude format xxxNxx'xx" C =1= longitude format xxxExx'xx" c =2= latitude format xx.xxN c =3= longitude format xxx.xxE C CHAR = CHARACTER*10 output C****************************************************************** CHARACTER*(*) CHAR CHARACTER*1 NSEW DEG=DEGS IF(DEG.GT.180.) DEG=DEG-360. modd=mod(latlon,2) IF(modd.EQ.0 .AND. DEG.GE.0.) NSEW='N' IF(modd.EQ.0 .AND. DEG.LT.0.) NSEW='S' IF(modd.NE.0 .AND. DEG.GE.0.) NSEW='E' IF(modd.NE.0 .AND. DEG.LT.0.) NSEW='W' D=ABS(DEG) IDEG=D D=(D-IDEG)*60. MIN=D ISEC=(D-MIN)*60. + .5 IF(ISEC.LT.60) GO TO 10 ISEC=0 MIN=MIN+1 IF(MIN.LT.60) GO TO 10 MIN=MIN-60 IDEG=IDEG+1 10 if(latlon.le.1) then WRITE(CHAR,11) IDEG,NSEW,MIN,ISEC 11 format(i3,a1,i2,1h',i2,1h") else WRITE(CHAR,'(f6.2,a1)') abs(DEG),NSEW end if RETURN END

src/voa_lib/deg2chr.for

! ! Copyright 2019-2020 SALMON developers ! ! Licensed under the Apache License, Version 2.0 (the "License"); ! you may not use this file except in compliance with the License. ! You may obtain a copy of the License at ! ! http://www.apache.org/licenses/LICENSE-2.0 ! ! Unless required by applicable law or agreed to in writing, software ! distributed under the License is distributed on an "AS IS" BASIS, ! WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. ! See the License for the specific language governing permissions and ! limitations under the License. ! module jellium implicit none contains !=========================================================================================== != check condition ========================================================================= subroutine check_condition_jm use salmon_global, only: yn_md, yn_opt, yn_out_pdos, yn_out_tm, yn_out_rvf_rt, nelem, natom, nelec, spin, xc, & yn_periodic, layout_multipole, shape_file_jm, num_jm, sphere_nion_jm, & method_singlescale use parallelization, only: nproc_id_global use communication, only: comm_is_root implicit none call condition_yn_jm(yn_md, 'yn_md', 'n') call condition_yn_jm(yn_opt, 'yn_opt', 'n') call condition_yn_jm(yn_out_pdos, 'yn_out_pdos', 'n') call condition_yn_jm(yn_out_tm, 'yn_out_tm', 'n') call condition_yn_jm(yn_out_rvf_rt,'yn_out_rvf_rt','n') call condition_int_jm(nelem,'nelem',1) call condition_int_jm(natom,'natom',1) if(yn_periodic=='n'.and.layout_multipole/=1) then if(comm_is_root(nproc_id_global)) & write(*,'("For yn_jm = y and yn_periodic = n, layout_multipole must be 1.")') stop end if if(mod(nelec,2)/=0) then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, nelec must be even number.")') stop end if if(trim(spin)/='unpolarized') then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, spin must be even unpolarized.")') stop end if if(trim(xc)/='pz') then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, xc must be pz.")') stop end if if(trim(method_singlescale)/='3d') then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, method_singlescale must be 3d.")') stop end if if (trim(shape_file_jm)=='none' .and. nelec/=sum(sphere_nion_jm(:)))then if(comm_is_root(nproc_id_global)) & write(*,'("For yn_jm = y and shape_file_jm = none, nelec must be sum(sphere_nion_jm).")') stop end if if(num_jm<1) then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, num_jm must be larger than 0.")') stop end if return contains !+ CONTAINED IN check_condition_jm +++++++++++++++++++++++++++++++++++++++++++++++++++++++ !+ check condition for y/n +++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ subroutine condition_yn_jm(tar,name,ans) implicit none character(1),intent(in) :: tar character(*),intent(in) :: name character(1),intent(in) :: ans if (tar/=ans) then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, ",A," must be ",A,".")') name,ans stop end if return end subroutine condition_yn_jm !+ CONTAINED IN check_condition_jm +++++++++++++++++++++++++++++++++++++++++++++++++++++++ !+ check condition for integer +++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ subroutine condition_int_jm(tar,name,ans) implicit none integer, intent(in) :: tar character(*),intent(in) :: name integer, intent(in) :: ans if (tar/=ans) then if(comm_is_root(nproc_id_global)) write(*,'("For yn_jm = y, ",A," must be ",I4,".")') name,ans stop end if return end subroutine condition_int_jm end subroutine check_condition_jm !=========================================================================================== != meke positive back ground charge density ================================================ subroutine make_rho_jm(lg,mg,info,system,rho_jm) use salmon_global, only: shape_file_jm, num_jm, rs_bohr_jm, sphere_nion_jm, sphere_loc_jm, & yn_charge_neutral_jm, yn_output_dns_jm, yn_periodic, nelec, unit_system use inputoutput, only: ulength_from_au use structures, only: s_rgrid, s_dft_system, s_parallel_info, s_scalar, allocate_scalar use parallelization, only: nproc_id_global, nproc_group_global use communication, only: comm_is_root, comm_summation use common_maxwell, only: input_shape_em use write_file3d, only: write_cube use math_constants, only: pi implicit none type(s_rgrid), intent(in) :: lg, mg type(s_parallel_info), intent(in) :: info type(s_dft_system), intent(in) :: system type(s_scalar), intent(inout) :: rho_jm type(s_scalar) :: work_l1,work_l2 integer,allocatable :: imedia(:,:,:) integer :: ii, ix, iy, iz, nelec_sum, mod_nelec real(8),allocatable :: dens(:), radi(:), mod_rs_bohr_jm(:) real(8) :: rab, charge_sum, charge_error character(60) :: suffix character(30) :: phys_quantity !set density allocate(dens(num_jm)); dens(:)=0.0d0; do ii=1,num_jm dens(ii) = 1.0d0/(4.0d0*pi/3.0*(rs_bohr_jm(ii)**3.0d0)) end do !make rho_jm if (trim(shape_file_jm)=='none')then !**************************************************************************************! !*** rho_jm is generated by spherecal shapes ******************************************! !**************************************************************************************! !allocate radius allocate(radi(num_jm)); radi(:)=0.0d0; !make spheres do ii=1,num_jm !set radius radi(ii) = ( dble(sphere_nion_jm(ii))/dens(ii)/(4.0d0*pi/3.0) )**(1.0d0/3.0d0) !make ii-th sphere do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) rab = sqrt( (lg%coordinate(ix,1)-sphere_loc_jm(ii,1))**2.0d0 & +(lg%coordinate(iy,2)-sphere_loc_jm(ii,2))**2.0d0 & +(lg%coordinate(iz,3)-sphere_loc_jm(ii,3))**2.0d0 ) if(rab<=radi(ii)) rho_jm%f(ix,iy,iz)=dens(ii) end do end do end do end do !set total electron number nelec_sum = sum(sphere_nion_jm(:)) else !**************************************************************************************! !*** rho_jm is generated by cube file *************************************************! !**************************************************************************************! !input shape allocate(imedia(mg%is(1):mg%ie(1),mg%is(2):mg%ie(2),mg%is(3):mg%ie(3))); imedia(:,:,:)=0; if(comm_is_root(nproc_id_global)) write(*,*) if(comm_is_root(nproc_id_global)) write(*,*) "**************************" if(index(shape_file_jm,".cube", back=.true.)/=0) then if(comm_is_root(nproc_id_global)) then write(*,*) "shape file is inputed by .cube format." end if call input_shape_em(shape_file_jm,600,mg%is,mg%ie,lg%is,lg%ie,0,imedia,'cu') elseif(index(shape_file_jm,".mp", back=.true.)/=0) then if(comm_is_root(nproc_id_global)) then write(*,*) "shape file is inputed by .mp format." write(*,*) "This version works for only .cube format.." end if stop else if(comm_is_root(nproc_id_global)) then write(*,*) "shape file must be .cube or .mp formats." end if stop end if if(comm_is_root(nproc_id_global)) write(*,*) "**************************" !make rho_jm from shape file do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) if(imedia(ix,iy,iz)>0) rho_jm%f(ix,iy,iz)=dens(imedia(ix,iy,iz)) end do end do end do !set total electron number nelec_sum = nelec end if !check charge neutrality call check_neutral_jm(charge_sum,charge_error,nelec_sum) !propose modified parameter & stop !or modify parameters allocate(mod_rs_bohr_jm(num_jm)); mod_rs_bohr_jm(:)=0.0d0; if(charge_error>=2.0d0/dble(nelec))then !stop & propose modified parameter mod_nelec = int(charge_sum) if(mod(mod_nelec,2)/=0) mod_nelec=mod_nelec+1 if(comm_is_root(nproc_id_global))then write(*,*) write(*,'("Charge nertrality error is",E23.15E3,".")') charge_error write(*,'("To improve charge nertrality, change nelec to",I9,".")') mod_nelec end if stop else !modify parameters and recheck neutrality if(yn_charge_neutral_jm=='y')then rho_jm%f(:,:,:) = rho_jm%f(:,:,:) * ( dble(nelec)/charge_sum ) dens(:) = dens(:) * ( dble(nelec)/charge_sum ) mod_rs_bohr_jm(:) = ( 1.0d0/(4.0d0*pi/3.0*dens(:)) )**(1.0d0/3.0d0) call check_neutral_jm(charge_sum,charge_error,nelec_sum) end if end if !output cube file if(yn_output_dns_jm=='y') then call allocate_scalar(lg,work_l1); call allocate_scalar(lg,work_l2); do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) work_l1%f(ix,iy,iz) = rho_jm%f(ix,iy,iz) end do end do end do call comm_summation(work_l1%f,work_l2%f,lg%num(1)*lg%num(2)*lg%num(3),nproc_group_global) suffix = "dns_jellium"; phys_quantity = "pbcd"; call write_cube(lg,103,suffix,phys_quantity,work_l2%f,system) end if !write information if(comm_is_root(nproc_id_global))then write(*,*) write(*,*) '****************** Jellium information ******************' if(trim(shape_file_jm)=='none')then write(*,'(" Positive background charge density is generated by spherecal shapes:")') do ii=1,num_jm write(*, '(A,I3,A,E23.15E3)') ' Radius of sphere(',ii,') =', radi(ii)*ulength_from_au end do write(*,*) " in the unit system, ",trim(unit_system),"." else write(*,'(" Positive background charge density is generated by shape file.")') end if if(sum(mod_rs_bohr_jm(:))==0.0d0) then write(*,'(" Wigner-Seitz radius is set as follows:")') do ii=1,num_jm write(*, '(A,I3,A,E23.15E3)') ' rs_bohr_jm(',ii,') =', rs_bohr_jm(ii) end do else write(*,'(" To keep charge neutrality, Wigner-Seitz radius is modified as follows:")') do ii=1,num_jm write(*, '(A,I3,A,E23.15E3)') ' mod_rs_bohr_jm(',ii,') =', mod_rs_bohr_jm(ii) end do end if write(*,*) " in the atomic unit(Bohr)." write(*,'(A,E23.15E3," %")') ' Chrge neutrality error =', charge_error if(yn_periodic=='y') then write(*,*) write(*,'(" For yn_jm = y and yn_periodic=y, this version still cannot output Total Energy.")') write(*,*) end if write(*,*) '*********************************************************' write(*,*) end if !change sign in view of electron density rho_jm%f(:,:,:) = -rho_jm%f(:,:,:) return contains !+ CONTAINED IN make_rho_jm ++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ !+ check charge neutrality +++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++ subroutine check_neutral_jm(sum_c,err,num_e) implicit none real(8), intent(inout) :: sum_c real(8), intent(out) :: err integer, intent(in) :: num_e real(8) :: sum_tmp sum_tmp = 0.0d0; sum_c = 0.0d0; !$omp parallel !$omp do private(ix,iy,iz) reduction( + : sum_tmp ) do iz=mg%is(3),mg%ie(3) do iy=mg%is(2),mg%ie(2) do ix=mg%is(1),mg%ie(1) sum_tmp = sum_tmp + rho_jm%f(ix,iy,iz) end do end do end do !$omp end do !$omp end parallel call comm_summation(sum_tmp,sum_c,info%icomm_r) sum_c = sum_c * system%hvol err = abs( (sum_c - dble(num_e)) / dble(num_e) ) return end subroutine check_neutral_jm end subroutine make_rho_jm end module jellium

src/atom/jellium.f90

! Loop recovery fails. Might be due to semantics not providing the ! necessary preconditions c%2.3 subroutine s234 (ntimes,ld,n,ctime,dtime,a,b,c,d,e,aa,bb,cc) c c loop interchange c if loop to do loop, interchanging with if loop necessary c integer ntimes, ld, n, i, nl, j real a(n), b(n), c(n), d(n), e(n), aa(ld,n), bb(ld,n), cc(ld,n) real t1, t2, second, chksum, ctime, dtime, cs2d ! call init(ld,n,a,b,c,d,e,aa,bb,cc,'s234 ') ! t1 = second() do 1 nl = 1,ntimes/n i = 1 11 if(i.gt.n) goto 10 j = 2 21 if(j.gt.n) goto 20 aa(i,j) = aa(i,j-1) + bb(i,j-1) * cc(i,j-1) j = j + 1 goto 21 20 i = i + 1 goto 11 10 continue ! call dummy(ld,n,a,b,c,d,e,aa,bb,cc,1.) 1 continue ! t2 = second() - t1 - ctime - ( dtime * float(ntimes/n) ) ! chksum = cs2d(n,aa) ! call check (chksum,(ntimes/n)*n*(n-1),n,t2,'s234 ') return end

packages/PIPS/validation/Transformations/S234.f

!*==ctrevc3.f90 processed by SPAG 7.51RB at 20:08 on 3 Mar 2022 !> \brief \b CTREVC3 ! ! =========== DOCUMENTATION =========== ! ! Online html documentation available at ! http://www.netlib.org/lapack/explore-html/ ! !> \htmlonly !> Download CTREVC3 + dependencies !> <a href="http://www.netlib.org/cgi-bin/netlibfiles.tgz?format=tgz&filename=/lapack/lapack_routine/ctrevc3.f"> !> [TGZ]</a> !> <a href="http://www.netlib.org/cgi-bin/netlibfiles.zip?format=zip&filename=/lapack/lapack_routine/ctrevc3.f"> !> [ZIP]</a> !> <a href="http://www.netlib.org/cgi-bin/netlibfiles.txt?format=txt&filename=/lapack/lapack_routine/ctrevc3.f"> !> [TXT]</a> !> \endhtmlonly ! ! Definition: ! =========== ! ! SUBROUTINE CTREVC3( SIDE, HOWMNY, SELECT, N, T, LDT, VL, LDVL, VR, ! LDVR, MM, M, WORK, LWORK, RWORK, LRWORK, INFO) ! ! .. Scalar Arguments .. ! CHARACTER HOWMNY, SIDE ! INTEGER INFO, LDT, LDVL, LDVR, LWORK, M, MM, N ! .. ! .. Array Arguments .. ! LOGICAL SELECT( * ) ! REAL RWORK( * ) ! COMPLEX T( LDT, * ), VL( LDVL, * ), VR( LDVR, * ), ! $ WORK( * ) ! .. ! ! !> \par Purpose: ! ============= !> !> \verbatim !> !> CTREVC3 computes some or all of the right and/or left eigenvectors of !> a complex upper triangular matrix T. !> Matrices of this type are produced by the Schur factorization of !> a complex general matrix: A = Q*T*Q**H, as computed by CHSEQR. !> !> The right eigenvector x and the left eigenvector y of T corresponding !> to an eigenvalue w are defined by: !> !> T*x = w*x, (y**H)*T = w*(y**H) !> !> where y**H denotes the conjugate transpose of the vector y. !> The eigenvalues are not input to this routine, but are read directly !> from the diagonal of T. !> !> This routine returns the matrices X and/or Y of right and left !> eigenvectors of T, or the products Q*X and/or Q*Y, where Q is an !> input matrix. If Q is the unitary factor that reduces a matrix A to !> Schur form T, then Q*X and Q*Y are the matrices of right and left !> eigenvectors of A. !> !> This uses a Level 3 BLAS version of the back transformation. !> \endverbatim ! ! Arguments: ! ========== ! !> \param[in] SIDE !> \verbatim !> SIDE is CHARACTER*1 !> = 'R': compute right eigenvectors only; !> = 'L': compute left eigenvectors only; !> = 'B': compute both right and left eigenvectors. !> \endverbatim !> !> \param[in] HOWMNY !> \verbatim !> HOWMNY is CHARACTER*1 !> = 'A': compute all right and/or left eigenvectors; !> = 'B': compute all right and/or left eigenvectors, !> backtransformed using the matrices supplied in !> VR and/or VL; !> = 'S': compute selected right and/or left eigenvectors, !> as indicated by the logical array SELECT. !> \endverbatim !> !> \param[in] SELECT !> \verbatim !> SELECT is LOGICAL array, dimension (N) !> If HOWMNY = 'S', SELECT specifies the eigenvectors to be !> computed. !> The eigenvector corresponding to the j-th eigenvalue is !> computed if SELECT(j) = .TRUE.. !> Not referenced if HOWMNY = 'A' or 'B'. !> \endverbatim !> !> \param[in] N !> \verbatim !> N is INTEGER !> The order of the matrix T. N >= 0. !> \endverbatim !> !> \param[in,out] T !> \verbatim !> T is COMPLEX array, dimension (LDT,N) !> The upper triangular matrix T. T is modified, but restored !> on exit. !> \endverbatim !> !> \param[in] LDT !> \verbatim !> LDT is INTEGER !> The leading dimension of the array T. LDT >= max(1,N). !> \endverbatim !> !> \param[in,out] VL !> \verbatim !> VL is COMPLEX array, dimension (LDVL,MM) !> On entry, if SIDE = 'L' or 'B' and HOWMNY = 'B', VL must !> contain an N-by-N matrix Q (usually the unitary matrix Q of !> Schur vectors returned by CHSEQR). !> On exit, if SIDE = 'L' or 'B', VL contains: !> if HOWMNY = 'A', the matrix Y of left eigenvectors of T; !> if HOWMNY = 'B', the matrix Q*Y; !> if HOWMNY = 'S', the left eigenvectors of T specified by !> SELECT, stored consecutively in the columns !> of VL, in the same order as their !> eigenvalues. !> Not referenced if SIDE = 'R'. !> \endverbatim !> !> \param[in] LDVL !> \verbatim !> LDVL is INTEGER !> The leading dimension of the array VL. !> LDVL >= 1, and if SIDE = 'L' or 'B', LDVL >= N. !> \endverbatim !> !> \param[in,out] VR !> \verbatim !> VR is COMPLEX array, dimension (LDVR,MM) !> On entry, if SIDE = 'R' or 'B' and HOWMNY = 'B', VR must !> contain an N-by-N matrix Q (usually the unitary matrix Q of !> Schur vectors returned by CHSEQR). !> On exit, if SIDE = 'R' or 'B', VR contains: !> if HOWMNY = 'A', the matrix X of right eigenvectors of T; !> if HOWMNY = 'B', the matrix Q*X; !> if HOWMNY = 'S', the right eigenvectors of T specified by !> SELECT, stored consecutively in the columns !> of VR, in the same order as their !> eigenvalues. !> Not referenced if SIDE = 'L'. !> \endverbatim !> !> \param[in] LDVR !> \verbatim !> LDVR is INTEGER !> The leading dimension of the array VR. !> LDVR >= 1, and if SIDE = 'R' or 'B', LDVR >= N. !> \endverbatim !> !> \param[in] MM !> \verbatim !> MM is INTEGER !> The number of columns in the arrays VL and/or VR. MM >= M. !> \endverbatim !> !> \param[out] M !> \verbatim !> M is INTEGER !> The number of columns in the arrays VL and/or VR actually !> used to store the eigenvectors. !> If HOWMNY = 'A' or 'B', M is set to N. !> Each selected eigenvector occupies one column. !> \endverbatim !> !> \param[out] WORK !> \verbatim !> WORK is COMPLEX array, dimension (MAX(1,LWORK)) !> \endverbatim !> !> \param[in] LWORK !> \verbatim !> LWORK is INTEGER !> The dimension of array WORK. LWORK >= max(1,2*N). !> For optimum performance, LWORK >= N + 2*N*NB, where NB is !> the optimal blocksize. !> !> If LWORK = -1, then a workspace query is assumed; the routine !> only calculates the optimal size of the WORK array, returns !> this value as the first entry of the WORK array, and no error !> message related to LWORK is issued by XERBLA. !> \endverbatim !> !> \param[out] RWORK !> \verbatim !> RWORK is REAL array, dimension (LRWORK) !> \endverbatim !> !> \param[in] LRWORK !> \verbatim !> LRWORK is INTEGER !> The dimension of array RWORK. LRWORK >= max(1,N). !> !> If LRWORK = -1, then a workspace query is assumed; the routine !> only calculates the optimal size of the RWORK array, returns !> this value as the first entry of the RWORK array, and no error !> message related to LRWORK is issued by XERBLA. !> \endverbatim !> !> \param[out] INFO !> \verbatim !> INFO is INTEGER !> = 0: successful exit !> < 0: if INFO = -i, the i-th argument had an illegal value !> \endverbatim ! ! Authors: ! ======== ! !> \author Univ. of Tennessee !> \author Univ. of California Berkeley !> \author Univ. of Colorado Denver !> \author NAG Ltd. ! !> \date November 2017 ! ! @generated from ztrevc3.f, fortran z -> c, Tue Apr 19 01:47:44 2016 ! !> \ingroup complexOTHERcomputational ! !> \par Further Details: ! ===================== !> !> \verbatim !> !> The algorithm used in this program is basically backward (forward) !> substitution, with scaling to make the the code robust against !> possible overflow. !> !> Each eigenvector is normalized so that the element of largest !> magnitude has magnitude 1; here the magnitude of a complex number !> (x,y) is taken to be |x| + |y|. !> \endverbatim !> ! ===================================================================== SUBROUTINE CTREVC3(Side,Howmny,Select,N,T,Ldt,Vl,Ldvl,Vr,Ldvr,Mm, & & M,Work,Lwork,Rwork,Lrwork,Info) IMPLICIT NONE !*--CTREVC3250 ! ! -- LAPACK computational routine (version 3.8.0) -- ! -- LAPACK is a software package provided by Univ. of Tennessee, -- ! -- Univ. of California Berkeley, Univ. of Colorado Denver and NAG Ltd..-- ! November 2017 ! ! .. Scalar Arguments .. CHARACTER Howmny , Side INTEGER Info , Ldt , Ldvl , Ldvr , Lwork , Lrwork , M , Mm , N ! .. ! .. Array Arguments .. LOGICAL Select(*) REAL Rwork(*) COMPLEX T(Ldt,*) , Vl(Ldvl,*) , Vr(Ldvr,*) , Work(*) ! .. ! ! ===================================================================== ! ! .. Parameters .. REAL ZERO , ONE PARAMETER (ZERO=0.0E+0,ONE=1.0E+0) COMPLEX CZERO , CONE PARAMETER (CZERO=(0.0E+0,0.0E+0),CONE=(1.0E+0,0.0E+0)) INTEGER NBMIN , NBMAX PARAMETER (NBMIN=8,NBMAX=128) ! .. ! .. Local Scalars .. LOGICAL allv , bothv , leftv , lquery , over , rightv , somev INTEGER i , ii , is , j , k , ki , iv , maxwrk , nb REAL ovfl , remax , scale , smin , smlnum , ulp , unfl COMPLEX cdum ! .. ! .. External Functions .. LOGICAL LSAME INTEGER ILAENV , ICAMAX REAL SLAMCH , SCASUM EXTERNAL LSAME , ILAENV , ICAMAX , SLAMCH , SCASUM ! .. ! .. External Subroutines .. EXTERNAL XERBLA , CCOPY , CLASET , CSSCAL , CGEMM , CGEMV , & & CLATRS , CLACPY , SLABAD ! .. ! .. Intrinsic Functions .. INTRINSIC ABS , REAL , CMPLX , CONJG , AIMAG , MAX ! .. ! .. Statement Functions .. REAL CABS1 ! .. ! .. Statement Function definitions .. CABS1(cdum) = ABS(REAL(cdum)) + ABS(AIMAG(cdum)) ! .. ! .. Executable Statements .. ! ! Decode and test the input parameters ! bothv = LSAME(Side,'B') rightv = LSAME(Side,'R') .OR. bothv leftv = LSAME(Side,'L') .OR. bothv ! allv = LSAME(Howmny,'A') over = LSAME(Howmny,'B') somev = LSAME(Howmny,'S') ! ! Set M to the number of columns required to store the selected ! eigenvectors. ! IF ( somev ) THEN M = 0 DO j = 1 , N IF ( Select(j) ) M = M + 1 ENDDO ELSE M = N ENDIF ! Info = 0 nb = ILAENV(1,'CTREVC',Side//Howmny,N,-1,-1,-1) maxwrk = N + 2*N*nb Work(1) = maxwrk Rwork(1) = N lquery = (Lwork==-1 .OR. Lrwork==-1) IF ( .NOT.rightv .AND. .NOT.leftv ) THEN Info = -1 ELSEIF ( .NOT.allv .AND. .NOT.over .AND. .NOT.somev ) THEN Info = -2 ELSEIF ( N<0 ) THEN Info = -4 ELSEIF ( Ldt<MAX(1,N) ) THEN Info = -6 ELSEIF ( Ldvl<1 .OR. (leftv .AND. Ldvl<N) ) THEN Info = -8 ELSEIF ( Ldvr<1 .OR. (rightv .AND. Ldvr<N) ) THEN Info = -10 ELSEIF ( Mm<M ) THEN Info = -11 ELSEIF ( Lwork<MAX(1,2*N) .AND. .NOT.lquery ) THEN Info = -14 ELSEIF ( Lrwork<MAX(1,N) .AND. .NOT.lquery ) THEN Info = -16 ENDIF IF ( Info/=0 ) THEN CALL XERBLA('CTREVC3',-Info) RETURN ELSEIF ( lquery ) THEN RETURN ENDIF ! ! Quick return if possible. ! IF ( N==0 ) RETURN ! ! Use blocked version of back-transformation if sufficient workspace. ! Zero-out the workspace to avoid potential NaN propagation. ! IF ( over .AND. Lwork>=N+2*N*NBMIN ) THEN nb = (Lwork-N)/(2*N) nb = MIN(nb,NBMAX) CALL CLASET('F',N,1+2*nb,CZERO,CZERO,Work,N) ELSE nb = 1 ENDIF ! ! Set the constants to control overflow. ! unfl = SLAMCH('Safe minimum') ovfl = ONE/unfl CALL SLABAD(unfl,ovfl) ulp = SLAMCH('Precision') smlnum = unfl*(N/ulp) ! ! Store the diagonal elements of T in working array WORK. ! DO i = 1 , N Work(i) = T(i,i) ENDDO ! ! Compute 1-norm of each column of strictly upper triangular ! part of T to control overflow in triangular solver. ! Rwork(1) = ZERO DO j = 2 , N Rwork(j) = SCASUM(j-1,T(1,j),1) ENDDO ! IF ( rightv ) THEN ! ! ============================================================ ! Compute right eigenvectors. ! ! IV is index of column in current block. ! Non-blocked version always uses IV=NB=1; ! blocked version starts with IV=NB, goes down to 1. ! (Note the "0-th" column is used to store the original diagonal.) iv = nb is = M DO ki = N , 1 , -1 IF ( somev ) THEN IF ( .NOT.Select(ki) ) CYCLE ENDIF smin = MAX(ulp*(CABS1(T(ki,ki))),smlnum) ! ! -------------------------------------------------------- ! Complex right eigenvector ! Work(ki+iv*N) = CONE ! ! Form right-hand side. ! DO k = 1 , ki - 1 Work(k+iv*N) = -T(k,ki) ENDDO ! ! Solve upper triangular system: ! [ T(1:KI-1,1:KI-1) - T(KI,KI) ]*X = SCALE*WORK. ! DO k = 1 , ki - 1 T(k,k) = T(k,k) - T(ki,ki) IF ( CABS1(T(k,k))<smin ) T(k,k) = smin ENDDO ! IF ( ki>1 ) THEN CALL CLATRS('Upper','No transpose','Non-unit','Y',ki-1,T,& & Ldt,Work(1+iv*N),scale,Rwork,Info) Work(ki+iv*N) = scale ENDIF ! ! Copy the vector x or Q*x to VR and normalize. ! IF ( .NOT.over ) THEN ! ------------------------------ ! no back-transform: copy x to VR and normalize. CALL CCOPY(ki,Work(1+iv*N),1,Vr(1,is),1) ! ii = ICAMAX(ki,Vr(1,is),1) remax = ONE/CABS1(Vr(ii,is)) CALL CSSCAL(ki,remax,Vr(1,is),1) ! DO k = ki + 1 , N Vr(k,is) = CZERO ENDDO ! ELSEIF ( nb==1 ) THEN ! ------------------------------ ! version 1: back-transform each vector with GEMV, Q*x. IF ( ki>1 ) CALL CGEMV('N',N,ki-1,CONE,Vr,Ldvr, & & Work(1+iv*N),1,CMPLX(scale), & & Vr(1,ki),1) ! ii = ICAMAX(N,Vr(1,ki),1) remax = ONE/CABS1(Vr(ii,ki)) CALL CSSCAL(N,remax,Vr(1,ki),1) ! ELSE ! ------------------------------ ! version 2: back-transform block of vectors with GEMM ! zero out below vector DO k = ki + 1 , N Work(k+iv*N) = CZERO ENDDO ! ! Columns IV:NB of work are valid vectors. ! When the number of vectors stored reaches NB, ! or if this was last vector, do the GEMM IF ( (iv==1) .OR. (ki==1) ) THEN CALL CGEMM('N','N',N,nb-iv+1,ki+nb-iv,CONE,Vr,Ldvr, & & Work(1+(iv)*N),N,CZERO,Work(1+(nb+iv)*N),N) ! normalize vectors DO k = iv , nb ii = ICAMAX(N,Work(1+(nb+k)*N),1) remax = ONE/CABS1(Work(ii+(nb+k)*N)) CALL CSSCAL(N,remax,Work(1+(nb+k)*N),1) ENDDO CALL CLACPY('F',N,nb-iv+1,Work(1+(nb+iv)*N),N,Vr(1,ki)& & ,Ldvr) iv = nb ELSE iv = iv - 1 ENDIF ENDIF ! ! Restore the original diagonal elements of T. ! DO k = 1 , ki - 1 T(k,k) = Work(k) ENDDO ! is = is - 1 ENDDO ENDIF ! IF ( leftv ) THEN ! ! ============================================================ ! Compute left eigenvectors. ! ! IV is index of column in current block. ! Non-blocked version always uses IV=1; ! blocked version starts with IV=1, goes up to NB. ! (Note the "0-th" column is used to store the original diagonal.) iv = 1 is = 1 DO ki = 1 , N ! IF ( somev ) THEN IF ( .NOT.Select(ki) ) CYCLE ENDIF smin = MAX(ulp*(CABS1(T(ki,ki))),smlnum) ! ! -------------------------------------------------------- ! Complex left eigenvector ! Work(ki+iv*N) = CONE ! ! Form right-hand side. ! DO k = ki + 1 , N Work(k+iv*N) = -CONJG(T(ki,k)) ENDDO ! ! Solve conjugate-transposed triangular system: ! [ T(KI+1:N,KI+1:N) - T(KI,KI) ]**H * X = SCALE*WORK. ! DO k = ki + 1 , N T(k,k) = T(k,k) - T(ki,ki) IF ( CABS1(T(k,k))<smin ) T(k,k) = smin ENDDO ! IF ( ki<N ) THEN CALL CLATRS('Upper','Conjugate transpose','Non-unit','Y',& & N-ki,T(ki+1,ki+1),Ldt,Work(ki+1+iv*N),scale, & & Rwork,Info) Work(ki+iv*N) = scale ENDIF ! ! Copy the vector x or Q*x to VL and normalize. ! IF ( .NOT.over ) THEN ! ------------------------------ ! no back-transform: copy x to VL and normalize. CALL CCOPY(N-ki+1,Work(ki+iv*N),1,Vl(ki,is),1) ! ii = ICAMAX(N-ki+1,Vl(ki,is),1) + ki - 1 remax = ONE/CABS1(Vl(ii,is)) CALL CSSCAL(N-ki+1,remax,Vl(ki,is),1) ! DO k = 1 , ki - 1 Vl(k,is) = CZERO ENDDO ! ELSEIF ( nb==1 ) THEN ! ------------------------------ ! version 1: back-transform each vector with GEMV, Q*x. IF ( ki<N ) CALL CGEMV('N',N,N-ki,CONE,Vl(1,ki+1),Ldvl, & & Work(ki+1+iv*N),1,CMPLX(scale), & & Vl(1,ki),1) ! ii = ICAMAX(N,Vl(1,ki),1) remax = ONE/CABS1(Vl(ii,ki)) CALL CSSCAL(N,remax,Vl(1,ki),1) ! ELSE ! ------------------------------ ! version 2: back-transform block of vectors with GEMM ! zero out above vector ! could go from KI-NV+1 to KI-1 DO k = 1 , ki - 1 Work(k+iv*N) = CZERO ENDDO ! ! Columns 1:IV of work are valid vectors. ! When the number of vectors stored reaches NB, ! or if this was last vector, do the GEMM IF ( (iv==nb) .OR. (ki==N) ) THEN CALL CGEMM('N','N',N,iv,N-ki+iv,CONE,Vl(1,ki-iv+1), & & Ldvl,Work(ki-iv+1+(1)*N),N,CZERO, & & Work(1+(nb+1)*N),N) ! normalize vectors DO k = 1 , iv ii = ICAMAX(N,Work(1+(nb+k)*N),1) remax = ONE/CABS1(Work(ii+(nb+k)*N)) CALL CSSCAL(N,remax,Work(1+(nb+k)*N),1) ENDDO CALL CLACPY('F',N,iv,Work(1+(nb+1)*N),N,Vl(1,ki-iv+1),& & Ldvl) iv = 1 ELSE iv = iv + 1 ENDIF ENDIF ! ! Restore the original diagonal elements of T. ! DO k = ki + 1 , N T(k,k) = Work(k) ENDDO ! is = is + 1 ENDDO ENDIF ! ! ! End of CTREVC3 ! END SUBROUTINE CTREVC3

src/complex/ctrevc3.f90

active component C { async command C opcode "abc" }

compiler/tools/fpp-check/test/command/bad_opcode.fpp

c--------------------------------------------------------------------- c--------------------------------------------------------------------- subroutine make_set c--------------------------------------------------------------------- c--------------------------------------------------------------------- c--------------------------------------------------------------------- c This function allocates space for a set of cells and fills the set c such that communication between cells on different nodes is only c nearest neighbor c--------------------------------------------------------------------- include 'header.h' include 'mpinpb.h' integer p, i, j, c, dir, size, excess, ierr,ierrcode c--------------------------------------------------------------------- c compute square root; add small number to allow for roundoff c (note: this is computed in setup_mpi.f also, but prefer to do c it twice because of some include file problems). c--------------------------------------------------------------------- ncells = dint(dsqrt(dble(no_nodes) + 0.00001d0)) c--------------------------------------------------------------------- c this makes coding easier c--------------------------------------------------------------------- p = ncells c--------------------------------------------------------------------- c determine the location of the cell at the bottom of the 3D c array of cells c--------------------------------------------------------------------- cell_coord(1,1) = mod(node,p) cell_coord(2,1) = node/p cell_coord(3,1) = 0 c--------------------------------------------------------------------- c set the cell_coords for cells in the rest of the z-layers; c this comes down to a simple linear numbering in the z-direct- c ion, and to the doubly-cyclic numbering in the other dirs c--------------------------------------------------------------------- do c=2, p cell_coord(1,c) = mod(cell_coord(1,c-1)+1,p) cell_coord(2,c) = mod(cell_coord(2,c-1)-1+p,p) cell_coord(3,c) = c-1 end do c--------------------------------------------------------------------- c offset all the coordinates by 1 to adjust for Fortran arrays c--------------------------------------------------------------------- do dir = 1, 3 do c = 1, p cell_coord(dir,c) = cell_coord(dir,c) + 1 end do end do c--------------------------------------------------------------------- c slice(dir,n) contains the sequence number of the cell that is in c coordinate plane n in the dir direction c--------------------------------------------------------------------- do dir = 1, 3 do c = 1, p slice(dir,cell_coord(dir,c)) = c end do end do c--------------------------------------------------------------------- c fill the predecessor and successor entries, using the indices c of the bottom cells (they are the same at each level of k c anyway) acting as if full periodicity pertains; note that p is c added to those arguments to the mod functions that might c otherwise return wrong values when using the modulo function c--------------------------------------------------------------------- i = cell_coord(1,1)-1 j = cell_coord(2,1)-1 predecessor(1) = mod(i-1+p,p) + p*j predecessor(2) = i + p*mod(j-1+p,p) predecessor(3) = mod(i+1,p) + p*mod(j-1+p,p) successor(1) = mod(i+1,p) + p*j successor(2) = i + p*mod(j+1,p) successor(3) = mod(i-1+p,p) + p*mod(j+1,p) c--------------------------------------------------------------------- c now compute the sizes of the cells c--------------------------------------------------------------------- do dir= 1, 3 c--------------------------------------------------------------------- c set cell_coord range for each direction c--------------------------------------------------------------------- size = grid_points(dir)/p excess = mod(grid_points(dir),p) do c=1, ncells if (cell_coord(dir,c) .le. excess) then cell_size(dir,c) = size+1 cell_low(dir,c) = (cell_coord(dir,c)-1)*(size+1) cell_high(dir,c) = cell_low(dir,c)+size else cell_size(dir,c) = size cell_low(dir,c) = excess*(size+1)+ > (cell_coord(dir,c)-excess-1)*size cell_high(dir,c) = cell_low(dir,c)+size-1 endif if (cell_size(dir, c) .le. 2) then write(*,50) 50 format(' Error: Cell size too small. Min size is 3') ierrcode = 1 call MPI_Abort(mpi_comm_world,ierrcode,ierr) stop endif end do end do return end c--------------------------------------------------------------------- c---------------------------------------------------------------------

bench/synthetics/NAS/NPB3.3.1/NPB3.3-MPI/BT/make_set.f

module vegetables_utilities_m use iso_varying_string, only: varying_string, operator(//) use strff, only: add_hanging_indentation, join, strff_to_string => to_string, NEWLINE implicit none private public :: to_string, equals_within_absolute, equals_within_relative interface to_string module procedure double_array_to_string module procedure double_matrix_to_string module procedure double_tensor_to_string module procedure integer_array_to_string module procedure integer_matrix_to_string module procedure integer_tensor_to_string end interface contains pure function double_array_to_string(array) result(string) double precision, intent(in) :: array(:) type(varying_string) :: string string = "[" // join(strff_to_string(array), ", ") // "]" end function pure function double_matrix_to_string(matrix) result(string) double precision, intent(in) :: matrix(:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(matrix(i,:)), i = 1, size(matrix, dim=1))], "," // NEWLINE) // "]", & 1) end function pure function double_tensor_to_string(tensor) result(string) double precision, intent(in) :: tensor(:,:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(tensor(i,:,:)), i = 1, size(tensor, dim=1))], "," // NEWLINE) // "]", & 1) end function pure function integer_array_to_string(array) result(string) integer, intent(in) :: array(:) type(varying_string) :: string string = "[" // join(strff_to_string(array), ", ") // "]" end function pure function integer_matrix_to_string(matrix) result(string) integer, intent(in) :: matrix(:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(matrix(i,:)), i = 1, size(matrix, dim=1))], "," // NEWLINE) // "]", & 1) end function pure function integer_tensor_to_string(tensor) result(string) integer, intent(in) :: tensor(:,:,:) type(varying_string) :: string integer :: i string = add_hanging_indentation( & "[" // join([(to_string(tensor(i,:,:)), i = 1, size(tensor, dim=1))], "," // NEWLINE) // "]", & 1) end function elemental function equals_within_absolute(expected, actual, tolerance) double precision, intent(in) :: expected double precision, intent(in) :: actual double precision, intent(in) :: tolerance logical :: equals_within_absolute equals_within_absolute = abs(expected - actual) <= tolerance end function elemental function equals_within_relative(expected, actual, tolerance) double precision, intent(in) :: expected double precision, intent(in) :: actual double precision, intent(in) :: tolerance logical :: equals_within_relative double precision, parameter :: MACHINE_TINY = tiny(0.0d0) equals_within_relative = & (abs(expected) <= MACHINE_TINY .and. abs(actual) <= MACHINE_TINY) & .or. (abs(expected - actual) / abs(expected) <= tolerance) end function end module

src/vegetables/utilities_m.f90

module occa_uva_m ! occa/c/uva.h use occa_types_m implicit none interface ! bool occaIsManaged(void *ptr); logical(kind=C_bool) function occaIsManaged(ptr) & bind(C, name="occaIsManaged") import C_void_ptr, C_bool implicit none type(C_void_ptr), value :: ptr end function ! void occaStartManaging(void *ptr); subroutine occaStartManaging(ptr) bind(C, name="occaStartManaging") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaStopManaging(void *ptr); subroutine occaStopManaging(ptr) bind(C, name="occaStopManaging") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaSyncToDevice(void *ptr, const occaUDim_t bytes); subroutine occaSyncToDevice(ptr, bytes) bind(C, name="occaSyncToDevice") import C_void_ptr, occaUDim_t implicit none type(C_void_ptr), value :: ptr integer(occaUDim_t), value :: bytes end subroutine ! void occaSyncToHost(void *ptr, const occaUDim_t bytes); subroutine occaSyncToHost(ptr, bytes) bind(C, name="occaSyncToHost") import C_void_ptr, occaUDim_t implicit none type(C_void_ptr), value :: ptr integer(occaUDim_t), value :: bytes end subroutine ! bool occaNeedsSync(void *ptr); logical(kind=C_bool) function occaNeedsSync(ptr) & bind(C, name="occaNeedsSync") import C_void_ptr, C_bool implicit none type(C_void_ptr), value :: ptr end function ! void occaSync(void *ptr); subroutine occaSync(ptr) bind(C, name="occaSync") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaDontSync(void *ptr); subroutine occaDontSync(ptr) bind(C, name="occaDontSync") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine ! void occaFreeUvaPtr(void *ptr); subroutine occaFreeUvaPtr(ptr) bind(C, name="occaFreeUvaPtr") import C_void_ptr implicit none type(C_void_ptr), value :: ptr end subroutine end interface end module occa_uva_m

3rd_party/occa/src/fortran/occa_uva_m.f90

program gen_constants implicit none include 'mpif.h' call output("MPI_BYTE ", MPI_BYTE) ! Older versions of OpenMPI (such as those used by default by ! Travis) do not define MPI_WCHAR and the MPI_*INT*_T types for ! Fortran. We thus don't require them (yet). ! call output("MPI_WCHAR ", MPI_WCHAR) ! call output("MPI_INT8_T ", MPI_INT8_T) ! call output("MPI_UINT8_T ", MPI_UINT8_T) ! call output("MPI_INT16_T ", MPI_INT16_T) ! call output("MPI_UINT16_T ", MPI_UINT16_T) ! call output("MPI_INT32_T ", MPI_INT32_T) ! call output("MPI_UINT32_T ", MPI_UINT32_T) ! call output("MPI_INT64_T ", MPI_INT64_T) ! call output("MPI_UINT64_T ", MPI_UINT64_T) call output("MPI_INTEGER1 ", MPI_INTEGER1) call output("MPI_INTEGER2 ", MPI_INTEGER2) call output("MPI_INTEGER4 ", MPI_INTEGER4) call output("MPI_INTEGER8 ", MPI_INTEGER8) call output("MPI_REAL4 ", MPI_REAL4) call output("MPI_REAL8 ", MPI_REAL8) call output("MPI_COMPLEX8 ", MPI_COMPLEX8) call output("MPI_COMPLEX16 ", MPI_COMPLEX16) call output("MPI_COMM_NULL ", MPI_COMM_NULL) call output("MPI_COMM_SELF ", MPI_COMM_SELF) call output("MPI_COMM_WORLD ", MPI_COMM_WORLD) call output("MPI_COMM_TYPE_SHARED", MPI_COMM_TYPE_SHARED) call output("MPI_OP_NULL ", MPI_OP_NULL) call output("MPI_BAND ", MPI_BAND) call output("MPI_BOR ", MPI_BOR) call output("MPI_BXOR ", MPI_BXOR) call output("MPI_LAND ", MPI_LAND) call output("MPI_LOR ", MPI_LOR) call output("MPI_LXOR ", MPI_LXOR) call output("MPI_MAX ", MPI_MAX) call output("MPI_MAXLOC ", MPI_MAXLOC) call output("MPI_MIN ", MPI_MIN) call output("MPI_NO_OP ", MPI_NO_OP) call output("MPI_MINLOC ", MPI_MINLOC) call output("MPI_PROD ", MPI_PROD) call output("MPI_REPLACE ", MPI_REPLACE) call output("MPI_SUM ", MPI_SUM) call output("MPI_REQUEST_NULL", MPI_REQUEST_NULL) call output("MPI_INFO_NULL ", MPI_INFO_NULL) call output("MPI_STATUS_SIZE ", MPI_STATUS_SIZE) call output("MPI_ERROR ", MPI_ERROR) call output("MPI_SOURCE ", MPI_SOURCE) call output("MPI_TAG ", MPI_TAG) call output("MPI_ANY_SOURCE ", MPI_ANY_SOURCE) call output("MPI_ANY_TAG ", MPI_ANY_TAG) call output("MPI_TAG_UB ", MPI_TAG_UB) call output("MPI_UNDEFINED ", MPI_UNDEFINED) call output("MPI_INFO_NULL ", MPI_INFO_NULL) call output("MPI_LOCK_EXCLUSIVE", MPI_LOCK_EXCLUSIVE) call output("MPI_LOCK_SHARED ", MPI_LOCK_SHARED) contains subroutine output(name, value) character*(*) name integer value print '("const ",a," = Cint(",i0,")")', name, value end subroutine output end program gen_constants

deps/gen_constants.f90

subroutine clawpack46_set_capacity(mx,my,mbc,dx,dy, & area,mcapa,maux,aux) implicit none integer mbc, mx, my, maux, mcapa double precision dx, dy double precision aux(1-mbc:mx+mbc,1-mbc:my+mbc, maux) double precision area(-mbc:mx+mbc+1,-mbc:my+mbc+1) integer i,j double precision dxdy dxdy = dx*dy do j = 1-mbc,my+mbc do i = 1-mbc,mx+mbc aux(i,j,mcapa) = area(i,j)/dxdy enddo enddo end

src/solvers/fc2d_clawpack4.6/fortran_source/clawpack46_set_capacity.f

SUBROUTINE G0SSHD(SURFAS,ISTRTX,ISTOPX,NPTSX, & ISTRTY,ISTOPY,NPTSY) C C ------------------------------------------------ C ROUTINE NO. ( 367) VERSION (A9.1) 13:JAN:94 C ------------------------------------------------ C PARAMETER (ISZARR= 1200, JSZARR= 600) REAL SURFAS(NPTSX,NPTSY),XPOS(JSZARR),YPOS(JSZARR), & RDATA(1),XADDPT(3),YADDPT(3),SXPT(4),SYPT(4),SZPT(4) INTEGER IPTRS(JSZARR),IDATA(1) LOGICAL ERRON C COMMON /T0INTS/ XLINE1(2),YLINE1(2),XLINE2(2),YLINE2(2) COMMON /T0SAN1/ SINAZA,COSAZA,SINTLT,COSTLT COMMON /T0SAXE/ INDAXE,XAXORG,YAXORG,XAXDEL,YAXDEL COMMON /T0SCHN/ LSTFRE(ISZARR),IFPNTR(ISZARR),IBPNTR(ISZARR), & SXPOS(ISZARR),SYPOS(ISZARR),ISPNTR COMMON /T0SCOM/ XLEN,YLEN,SCALE,XSHIFT,YSHIFT,SURMIN,SURMAX COMMON /T0SDL1/ DELTXR,DELTYR,DELTZR,DELTXC,DELTYC,DELTZC, & VSCALE,ZSCALE,ITPBTM,IQDRNT COMMON /T0SIND/ ISURIN COMMON /T0SKOL/ HUESHD,JKOLS,KOLSTA COMMON /T0SLIT/ ALIGHT,BLIGHT,CLIGHT COMMON /T0SREF/ AMBINT,DIFFUS,SPECT COMMON /T3ERRS/ ERRON,NUMERR C DATA RDATA /0.0/ C C C INITIALISE THE CHAINED LIST C DO 100 ISET= 1,ISZARR LSTFRE(ISET)= 0 IFPNTR(ISET)= 0 IBPNTR(ISET)= 0 100 CONTINUE C LSTFRE(1)= 1 ISPNTR= 1 INDC= -1 IF (IQDRNT.EQ.1) THEN ISTRTA= ISTRTX ISTOPA= ISTOPX INCA= 1 ISTRTB= ISTRTY ISTOPB= ISTOPY SHPOS= MAX(MIN(SURFAS(ISTRTA,ISTRTB),SURMAX),SURMIN) INCB= 1 IDIR= 0 ELSE IF (IQDRNT.EQ.2) THEN ISTRTA= ISTOPY ISTOPA= ISTRTY INCA= -1 ISTRTB= ISTRTX ISTOPB= ISTOPX SHPOS= MAX(MIN(SURFAS(ISTRTB,ISTRTA),SURMAX),SURMIN) INCB= 1 IDIR= 1 ELSE IF (IQDRNT.EQ.3) THEN ISTRTA= ISTOPX ISTOPA= ISTRTX INCA= -1 ISTRTB= ISTOPY ISTOPB= ISTRTY SHPOS= MAX(MIN(SURFAS(ISTRTA,ISTRTB),SURMAX),SURMIN) INCB= -1 IDIR= 0 ELSE ISTRTA= ISTRTY ISTOPA= ISTOPY INCA= 1 ISTRTB= ISTOPX ISTOPB= ISTRTX SHPOS= MAX(MIN(SURFAS(ISTRTB,ISTRTA),SURMAX),SURMIN) INCB= -1 IDIR= 1 ENDIF C SXPOS(1)= XSHIFT SYPOS(1)= VSCALE*SHPOS+YSHIFT C DO 200 JJ= ISTRTB,ISTOPB-INCB,INCB INDC= INDC+1 INDC1= INDC+1 INDR= -1 IF (IDIR.EQ.0) THEN SHPOS1= MAX(MIN(SURFAS(ISTRTA,JJ),SURMAX),SURMIN) SHPOS2= MAX(MIN(SURFAS(ISTRTA,JJ+INCB),SURMAX),SURMIN) ELSE SHPOS1= MAX(MIN(SURFAS(JJ,ISTRTA),SURMAX),SURMIN) SHPOS2= MAX(MIN(SURFAS(JJ+INCB,ISTRTA),SURMAX),SURMIN) ENDIF C SXPOS1= INDC*DELTXC+XSHIFT SYPOS1= INDC*DELTYC+VSCALE*SHPOS1+YSHIFT SZPT(1)= INDC*DELTZC-ZSCALE*SHPOS1 SXPOS2= INDC1*DELTXC+XSHIFT SYPOS2= INDC1*DELTYC+VSCALE*SHPOS2+YSHIFT SZPT(2)= INDC1*DELTZC-ZSCALE*SHPOS2 C DO 200 II= ISTRTA,ISTOPA-INCA,INCA INDR= INDR+1 INDR1= INDR+1 IF (IDIR.EQ.0) THEN SHPOS3= MAX(MIN(SURFAS(II+INCA,JJ+INCB),SURMAX),SURMIN) SHPOS4= MAX(MIN(SURFAS(II+INCA,JJ),SURMAX),SURMIN) ELSE SHPOS3= MAX(MIN(SURFAS(JJ+INCB,II+INCA),SURMAX),SURMIN) SHPOS4= MAX(MIN(SURFAS(JJ,II+INCA),SURMAX),SURMIN) ENDIF C SXPOS3= INDR1*DELTXR+INDC1*DELTXC+XSHIFT SYPOS3= INDR1*DELTYR+INDC1*DELTYC+VSCALE*SHPOS3+YSHIFT SZPT(3)= INDR1*DELTZR+INDC1*DELTZC-ZSCALE*SHPOS3 SXPOS4= INDR1*DELTXR+INDC*DELTXC+XSHIFT SYPOS4= INDR1*DELTYR+INDC*DELTYC+VSCALE*SHPOS4+YSHIFT SZPT(4)= INDR1*DELTZR+INDC*DELTZC-ZSCALE*SHPOS4 C IF (ITPBTM.EQ.0) GO TO 13 IF (INDR1.EQ.1) CALL G0SADD(SXPOS2,SYPOS2) IF (INDC.EQ.0) CALL G0SADD(SXPOS4,SYPOS4) C SXPT(1)= SXPOS1 SXPT(2)= SXPOS2 SXPT(3)= SXPOS3 SXPT(4)= SXPOS4 SYPT(1)= SYPOS1 SYPT(2)= SYPOS2 SYPT(3)= SYPOS3 SYPT(4)= SYPOS4 C C ASSEMBLE THE POLYLINE DEFINING THE TOP C OF THE VISIBLE REGION. C CALL G0SCPT(SXPOS2,IFSTPT) NXTPOI= ISPNTR IF (IFSTPT.NE.0) NXTPOI= IFPNTR(IFSTPT) C XPOS(1)= SXPOS(IFSTPT) YPOS(1)= SYPOS(IFSTPT) IPTRS(1)= IFSTPT XPOS(2)= SXPOS(NXTPOI) YPOS(2)= SYPOS(NXTPOI) IPTRS(2)= NXTPOI LSTSIZ= 2 INDEX3= 1 IF (XPOS(2).LE.SXPOS3) INDEX3= 2 C CALL G0SCPT(SXPOS4,LSTPNT) IF (SXPOS4.GT.SXPOS(LSTPNT)) LSTPNT= IFPNTR(LSTPNT) 1 IF (NXTPOI.EQ.LSTPNT) GO TO 2 C LSTSIZ= LSTSIZ+1 IF (LSTSIZ.GT.JSZARR) GO TO 901 C NXTPOI= IFPNTR(NXTPOI) XPOS(LSTSIZ)= SXPOS(NXTPOI) IF (XPOS(LSTSIZ).LE.SXPOS3) INDEX3= LSTSIZ C YPOS(LSTSIZ)= SYPOS(NXTPOI) IPTRS(LSTSIZ)= NXTPOI GO TO 1 C 2 INDEX2= INDEX3 IF (XPOS(INDEX3).LT.SXPOS3) INDEX2= INDEX2+1 C LFLAG= 0 C C CHECK THE VISIBILITY OF THE LINE END POINTS. C SET 'IVIS' TO -1 IF THE POINT IS INVISIBLE, C 0 FOR COINCIDENCE AND C 1 IF THE POINT IS VISIBLE. C C IVIS AND IVIS1 CAN EACH TAKE ONE OF THREE VALUES. C THEREFORE THERE ARE NINE COMBINATIONS OR CASES. C C CASE IVIS IVIS1 IVIS+IVIS1 C C 1 -1 -1 -2 C 2 -1 0 -1 C 3 -1 1 0 C 4 0 -1 -1 C 5 0 0 0 C 6 0 1 1 C 7 1 -1 0 C 8 1 0 1 C 9 1 1 2 C YVAL= (SXPOS2-XPOS(1))*(YPOS(2)-YPOS(1))/ & (XPOS(2)-XPOS(1))+YPOS(1) IVIS2= 0 IF (SYPOS2.GT.YVAL) IVIS2= 1 IF (SYPOS2.LT.YVAL) IVIS2= -1 C YVAL= (SXPOS3-XPOS(INDEX3))*(YPOS(INDEX3+1)-YPOS(INDEX3))/ & (XPOS(INDEX3+1)-XPOS(INDEX3))+YPOS(INDEX3) IVIS3= 0 IF (SYPOS3.GT.YVAL) IVIS3= 1 IF (SYPOS3.LT.YVAL) IVIS3= -1 C YVAL= (SXPOS4-XPOS(LSTSIZ-1))*(YPOS(LSTSIZ)-YPOS(LSTSIZ-1))/ & (XPOS(LSTSIZ)-XPOS(LSTSIZ-1))+YPOS(LSTSIZ-1) IVIS4= 0 IF (SYPOS4.GT.YVAL) IVIS4= 1 IF (SYPOS4.LT.YVAL) IVIS4= -1 C C PROCESS THE FIRST LINE SECTION. C XINT1= SXPOS2 YINT1= SYPOS2 INDADD= 0 INDST= 1 IVISL= IVIS2 IVIS= -IVIS2 IND= 1 3 IND= IND+1 IF (IND.GT.INDEX2) GO TO 7 C YVAL= (XPOS(IND)-SXPOS2)*(SYPOS3-SYPOS2)/ & (SXPOS3-SXPOS2)+SYPOS2 IVIS1= 0 IF (YPOS(IND).GT.YVAL) IVIS1= 1 IF (YPOS(IND).LT.YVAL) IVIS1= -1 IF (IND.EQ.INDEX2) IVIS1= -IVIS3 IF (IVIS.EQ.0) GO TO 6 IF (IVIS+IVIS1.NE.0) GO TO 4 C C CASES 3 AND 7 C C FIND INTERSECTION ON LINE IND-1 TO IND C XLINE1(1)= XINT1 YLINE1(1)= YINT1 XLINE1(2)= SXPOS3 YLINE1(2)= SYPOS3 XLINE2(1)= XPOS(IND-1) YLINE2(1)= YPOS(IND-1) XLINE2(2)= XPOS(IND) YLINE2(2)= YPOS(IND) CALL G0INTR(ICODE,XINT2,YINT2) INDADD= INDADD+1 XADDPT(INDADD)= XINT2 YADDPT(INDADD)= YINT2 XINT1= XINT2 YINT1= YINT2 IF (IVIS.NE.1) THEN C C CASE 3 C CALL G0SHAD(XPOS,YPOS,INDST,IND-1,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 CALL G0SDEL(IPTRS(IND-1)) ELSE C C CASE7 C INDST= IND ENDIF C GO TO 5 C C CASES 1, 2, 8 AND 9 C 4 IF (IVIS.LT.0.AND.XPOS(IND).LE.SXPOS3) C C CASES 1 AND 2 C & CALL G0SDEL(IPTRS(IND-1)) IF (IVIS1.NE.0) GO TO 6 C C CASES 2 AND 8 C IF (IVIS.NE.1) THEN C C CASE 2 C CALL G0SHAD(XPOS,YPOS,INDST,IND,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 ENDIF C C CASES 2 AND 8 C INDST= IND XINT1= XPOS(IND) YINT1= YPOS(IND) C C CASES 2, 3, 7 AND 8 C 5 CALL G0SADD(XINT1,YINT1) C C ALL CASES C 6 IVISL= -IVIS1 IVISAV= IVIS IVIS= IVIS1 GO TO 3 C 7 IF (IVISL+IVIS3.GT.0) THEN IF (IVISAV.GE.0.AND.INDEX2.GT.INDEX3) LFLAG= 1 C INDADD= INDADD+1 XADDPT(INDADD)= SXPOS3 YADDPT(INDADD)= SYPOS3 CALL G0SADD(SXPOS3,SYPOS3) ENDIF C C PROCESS THE SECOND LINE SECTION. C XINT1= SXPOS3 YINT1= SYPOS3 IVISL= IVIS3 IVIS= -IVIS3 IND= INDEX3 8 IND= IND+1 IF (IND.GT.LSTSIZ) GO TO 12 C YVAL= (XPOS(IND)-SXPOS3)*(SYPOS4-SYPOS3)/ & (SXPOS4-SXPOS3)+SYPOS3 IVIS1= 0 IF (YPOS(IND).GT.YVAL) IVIS1= 1 IF (YPOS(IND).LT.YVAL) IVIS1= -1 IF (IND.EQ.LSTSIZ) IVIS1= -IVIS4 IF (IVIS.EQ.0) GO TO 11 IF (IVIS+IVIS1.NE.0) GO TO 9 C C CASES 3 AND 7 C C FIND INTERSECTION ON LINE IND-1 TO IND C XLINE1(1)= XINT1 YLINE1(1)= YINT1 XLINE1(2)= SXPOS4 YLINE1(2)= SYPOS4 XLINE2(1)= XPOS(IND-1) YLINE2(1)= YPOS(IND-1) XLINE2(2)= XPOS(IND) YLINE2(2)= YPOS(IND) CALL G0INTR(ICODE,XINT2,YINT2) INDADD= INDADD+1 XADDPT(INDADD)= XINT2 YADDPT(INDADD)= YINT2 XINT1= XINT2 YINT1= YINT2 IF (IVIS.NE.1) THEN C C CASE 3 C CALL G0SHAD(XPOS,YPOS,INDST,IND-1,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 IF (LFLAG.EQ.0) & CALL G0SDEL(IPTRS(IND-1)) C LFLAG= 0 ELSE C C CASE7 C INDST= IND ENDIF C GO TO 10 C C CASES 1, 2, 8 AND 9 C 9 IF (IVIS.LT.0.AND.LFLAG.EQ.0) C C CASES 1 AND 2 C & CALL G0SDEL(IPTRS(IND-1)) C LFLAG= 0 IF (IVIS1.NE.0) GO TO 11 C C CASES 2 AND 8 C IF (IVIS.NE.1) THEN C C CASE 2 C CALL G0SHAD(XPOS,YPOS,INDST,IND,XADDPT,YADDPT,INDADD, & SXPT,SYPT,SZPT) C INDADD= 0 ENDIF C C CASES 2 AND 8 C INDST= IND XINT1= XPOS(IND) YINT1= YPOS(IND) C C CASES 2, 3, 7 AND 8 C 10 CALL G0SADD(XINT1,YINT1) C C ALL CASES C 11 IVISL= -IVIS1 IVIS= IVIS1 GO TO 8 C 12 IF (IVISL.EQ.0) CALL G0SDEL(IPTRS(LSTSIZ)) C GO TO 14 C C FILL THE BASE. C 13 IF (INDC.EQ.0) THEN YBAS1= INDR*DELTYR+VSCALE*SURMIN+YSHIFT YBAS4= YBAS1+DELTYR IDATA(1)= 0 CALL G3LINK(5,13,-1,IDATA,RDATA) PRODNL= SINAZA*ALIGHT-COSAZA*SINTLT*BLIGHT- & COSAZA*COSTLT*CLIGHT PROD= AMBINT+DIFFUS*MIN(MAX(PRODNL,0.0),1.0) IDATA(1)= NINT(PROD*JKOLS)+KOLSTA CALL G3LINK(5,3,-1,IDATA,RDATA) CALL POSITN(SXPOS1,SYPOS1) CALL JOIN(SXPOS1,YBAS1) CALL JOIN(SXPOS4,YBAS4) CALL JOIN(SXPOS4,SYPOS4) CALL JOIN(SXPOS1,SYPOS1) CALL G3LINK(5,4,0,IDATA,RDATA) ENDIF C IF (INDR.EQ.0) THEN YBAS1= INDC*DELTYC+VSCALE*SURMIN+YSHIFT YBAS2= YBAS1+DELTYC IDATA(1)= 0 CALL G3LINK(5,13,-1,IDATA,RDATA) PRODNL= -COSAZA*ALIGHT-SINAZA*SINTLT*BLIGHT- & SINAZA*COSTLT*CLIGHT PROD= AMBINT+DIFFUS*MIN(MAX(PRODNL,0.0),1.0) IDATA(1)= NINT(PROD*JKOLS)+KOLSTA CALL G3LINK(5,3,-1,IDATA,RDATA) CALL POSITN(SXPOS1,SYPOS1) CALL JOIN(SXPOS1,YBAS1) CALL JOIN(SXPOS2,YBAS2) CALL JOIN(SXPOS2,SYPOS2) CALL JOIN(SXPOS1,SYPOS1) CALL G3LINK(5,4,0,IDATA,RDATA) ENDIF C 14 SXPOS1= SXPOS4 SYPOS1= SYPOS4 SZPT(1)= SZPT(4) SXPOS2= SXPOS3 SYPOS2= SYPOS3 SZPT(2)= SZPT(3) 200 CONTINUE C IF (ITPBTM.EQ.0) RETURN C YEND1= VSCALE*SURMIN+YSHIFT XEND2= INDC1*DELTXC+XSHIFT YEND2= INDC1*DELTYC+VSCALE*SURMIN+YSHIFT XEND4= INDR1*DELTXR+XSHIFT YEND4= INDR1*DELTYR+VSCALE*SURMIN+YSHIFT IF (INDAXE.NE.0) THEN C C DRAW BASE LINES. C CALL POSITN(XEND2,YEND2) CALL JOIN(XSHIFT,YEND1) CALL JOIN(XEND4,YEND4) CALL G0SAX1(ISTRTX,ISTOPX,ISTRTY,ISTOPY, & XEND2,XEND4,YEND1,YEND2,YEND4) ENDIF C IF (ISURIN.NE.0) CALL G0SIND(XEND2,XEND4,YEND2,YEND4) C RETURN C 901 NUMERR= 41 IF (ERRON) CALL G0ERMS STOP END

src/lib/g0sshd.f

Robbens Department Store is the real deal: it is a time warp to a clothing stores department store of the 1950’s. The building ceiling drops from front to back, about 15’ where you enter to barely 7’ in the back of the store, creating an odd cavelike effect. You are likely to be greeted and served by Robby Robben when you enter. The store was originally owned and operated by his mother, Mildred Robben, until her retirement in 2000. It is packed – stacked to the ceiling, merchandise hanging from walls, slumping display shelves with heaps of shirts, hats, pants. There are odd countryesque wall hangings (“The worst day fishin’ is better than the best day workin’), kids’ toys, belt buckles, all scattered somewhat randomly around the shop. Some of the merchandise looks as though it has been there since the 1950’s. The main inventory is western clothing and work clothes. Robben’s carries a full line of genuine Stetson hats, as well as other cowboy hats and boots; Ben Davis work clothes in all sizes; shoes and work boots made in America; Levi trousers and Arrow dress shirts. They will specialorder sizes not in stock. Robben’s rents tuxedos. Cub and Boy Scouting scout supplies are available.

lab/davisWiki/Robben%27s_Department_Store.f

SUBROUTINE PCC_SIN(NR,ICORE,AC,BC,CC,R,CDC) ccccccccccccccccccccccccccccccccccccccccccc cccccc Replace the original full core charge CDC/r inside r(icore), cccccc with a form ac*sin(bc*r), match the original charge at r(icore) cccccc for its value and slop. The purpose is to generate a smoother cccccc core charge to be used in plane wave calculation cccccc cccccc Lin-Wang Wang, Feb. 28, 2001 cccccc Actually, it should be called: PCC_SIN(xxxx) cccccc cccccc ccccccccc This subroutine returns a pseudo core of ccccccccc cdc(r)=ac*r*sin(bc*r) inside r(icore) ccccccccc instead of the original ccccccccc cdc(r)=r^2 * exp(ac+bc*r^2+cc*r^4) inside r(icore) ccccccccc ccccccccc This new pseudo-core is softer than ccccccccc the original exp. core, and uses smaller Ecut in ccccccccc PEtot calculation. For PEtot calculation, we suggest ccccccccc this pseudo-core for "pe" calculation (for no GGA pseudopotential). ccccccccc Lin-Wang Wang, Feb. 28, 2001 IMPLICIT DOUBLE PRECISION (A-H,O-Z) PARAMETER (NN = 5) DIMENSION R(NR),CDC(NR), . DR_K(-NN:NN),DDR_K(-NN:NN), . CDC_SCA(ICORE-NN:ICORE+NN) tpfive=2.5d0 pi=4*datan(1.d0) cccccccccccccccccccccccccccccccccccccccccccc cdcp = (cdc(icore+1)-cdc(icore))/(r(icore+1)-r(icore)) tanb = cdc(icore)/(r(icore)*cdcp-cdc(icore)) rbold = tpfive do 500 i = 1, 50 rbnew = pi + datan(tanb*rbold) if (abs(rbnew-rbold) .lt. .00001D0) then bc = rbnew/r(icore) ac = cdc(icore)/(r(icore)*sin(rbnew)) do 490 j = 1, icore cdc(j) = ac*r(j)*sin(bc*r(j)) 490 continue write(*,*) "r(icore),ac,bc", r(icore), ac, bc write(*,*) "**************" write(*,*) "**** USING sin(bc*r) for core charge ***" write(*,*) "**************" c go to 530 c else rbold = rbnew end if 500 continue write(*,*) "SHOULD NEVER BE HERE, fail to find core charge" Write(*,*) "inside PCC_EXP.f, stop" stop 530 continue cc=1.d0 return end

PSEUDO/source/pcc_sin.f

!*********************************************************************** ! Integrated Water Flow Model (IWFM) ! Copyright (C) 2005-2021 ! State of California, Department of Water Resources ! ! This program is free software; you can redistribute it and/or ! modify it under the terms of the GNU General Public License ! as published by the Free Software Foundation; either version 2 ! of the License, or (at your option) any later version. ! ! This program is distributed in the hope that it will be useful, ! but WITHOUT ANY WARRANTY; without even the implied warranty of ! MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the ! GNU General Public License for more details. ! (http://www.gnu.org/copyleft/gpl.html) ! ! You should have received a copy of the GNU General Public License ! along with this program; if not, write to the Free Software ! Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. ! ! For tecnical support, e-mail: [email protected] !*********************************************************************** MODULE Class_StrmGWConnector_v40 USE MessageLogger , ONLY: SetLastMessage , & LogMessage , & MessageArray , & iWarn , & iFatal USE IOInterface , ONLY: GenericFileType USE GeneralUtilities , ONLY: StripTextUntilCharacter , & IntToText , & CleanSpecialCharacters , & ConvertID_To_Index USE Package_Discretization USE Package_Misc , ONLY: AbstractFunctionType , & f_iStrmComp , & f_iGWComp , & f_rSmoothMaxP USE Class_BaseStrmGWConnector , ONLY: BaseStrmGWConnectorType , & iDisconnectAtTopOfBed , & iDisconnectAtBottomOfBed USE Package_Matrix , ONLY: MatrixType IMPLICIT NONE ! ****************************************************************** ! ****************************************************************** ! ****************************************************************** ! *** ! *** VARIABLE DEFINITIONS ! *** ! ****************************************************************** ! ****************************************************************** ! ****************************************************************** ! ------------------------------------------------------------- ! --- PUBLIC ENTITIES ! ------------------------------------------------------------- PRIVATE PUBLIC :: StrmGWConnector_v40_Type ! ------------------------------------------------------------- ! --- STREAM-GW CONNECTOR TYPE ! ------------------------------------------------------------- TYPE,EXTENDS(BaseStrmGWConnectorType) :: StrmGWConnector_v40_Type PRIVATE CONTAINS PROCEDURE,PASS :: Simulate => StrmGWConnector_v40_Simulate PROCEDURE,PASS :: CompileConductance => StrmGWConnector_v40_CompileConductance END TYPE StrmGWConnector_v40_Type ! ------------------------------------------------------------- ! --- MISC. ENTITIES ! ------------------------------------------------------------- INTEGER,PARAMETER :: ModNameLen = 27 CHARACTER(LEN=ModNameLen),PARAMETER :: ModName = 'Class_StrmGWConnector_v40::' CONTAINS ! ------------------------------------------------------------- ! --- COMPILE CONDUCTANCE FOR STREAM-GW CONNECTOR ! ------------------------------------------------------------- SUBROUTINE StrmGWConnector_v40_CompileConductance(Connector,InFile,AppGrid,Stratigraphy,NStrmNodes,iStrmNodeIDs,UpstrmNodes,DownstrmNodes,BottomElevs,iStat) CLASS(StrmGWConnector_v40_Type) :: Connector TYPE(GenericFileType) :: InFile TYPE(AppGridType),INTENT(IN) :: AppGrid TYPE(StratigraphyType),INTENT(IN) :: Stratigraphy INTEGER,INTENT(IN) :: NStrmNodes,iStrmNodeIDs(NStrmNodes),UpstrmNodes(:),DownstrmNodes(:) REAL(8),INTENT(IN) :: BottomElevs(:) INTEGER,INTENT(OUT) :: iStat !Local variables CHARACTER(LEN=ModNameLen+38) :: ThisProcedure = ModName // 'StrmGWConnector_v40_CompileConductance' INTEGER :: indxReach,indxNode,iGWNode,iGWUpstrmNode,iUpstrmNode, & iDownstrmNode,iNode,ErrorCode,iLayer,iStrmNodeID, & iGWNodeID,iInteractionType REAL(8) :: B_DISTANCE,F_DISTANCE,CA,CB,FACTK,FACTL, & DummyArray(NStrmNodes,4) REAL(8),DIMENSION(NStrmNodes) :: BedThick,WetPerimeter,Conductivity CHARACTER :: ALine*500,TimeUnitConductance*6 LOGICAL :: lProcessed(NStrmNodes) INTEGER,ALLOCATABLE :: iGWNodes(:) !Initialize iStat = 0 lProcessed = .FALSE. CALL Connector%GetAllGWNodes(iGWNodes) !Read data CALL InFile%ReadData(FACTK,iStat) ; IF (iStat .EQ. -1) RETURN CALL InFile%ReadData(ALine,iStat) ; IF (iStat .EQ. -1) RETURN CALL CleanSpecialCharacters(ALine) TimeUnitConductance = ADJUSTL(StripTextUntilCharacter(ALine,'/')) CALL InFile%ReadData(FACTL,iStat) ; IF (iStat .EQ. -1) RETURN CALL InFile%ReadData(DummyArray,iStat) ; IF (iStat .EQ. -1) RETURN !Assumption for stream-aquifer disconnection CALL InFile%ReadData(iInteractionType,iStat) IF (iStat .EQ. 0) THEN CALL Connector%SetInteractionType(iInteractionType,iStat) IF (iStat .EQ. -1) RETURN ELSE iStat = 0 END IF DO indxNode=1,NStrmNodes iStrmNodeID = INT(DummyArray(indxNode,1)) CALL ConvertID_To_Index(iStrmNodeID,iStrmNodeIDs,iNode) IF (iNode .EQ. 0) THEN CALL SetLastMessage('Stream node '//TRIM(IntToText(iStrmNodeID))//' listed for stream bed parameters is not in the model!',iFatal,ThisProcedure) iStat = -1 RETURN END IF IF (lProcessed(iNode)) THEN CALL SetLastMessage('Stream bed parameters for stream node '//TRIM(IntToText(iStrmNodeID))//' are defined more than once!',iFatal,ThisProcedure) iStat = -1 RETURN END IF lProcessed(iNode) = .TRUE. Conductivity(iNode) = DummyArray(indxNode,2)*FACTK BedThick(iNode) = DummyArray(indxNode,3)*FACTL WetPerimeter(iNode) = DummyArray(indxNode,4)*FACTL END DO !Compute conductance DO indxReach=1,SIZE(UpstrmNodes) iUpstrmNode = UpstrmNodes(indxReach) iDownstrmNode = DownstrmNodes(indxReach) B_DISTANCE = 0.0 DO indxNode=iUpstrmNode+1,iDownstrmNode iGWUpstrmNode = iGWNodes(indxNode-1) iGWNode = iGWNodes(indxNode) iLayer = Connector%iLayer(indxNode) IF (Connector%iInteractionType .EQ. iDisconnectAtBottomOfBed) THEN IF (BottomElevs(indxNode)-BedThick(indxNode) .LT. Stratigraphy%BottomElev(iGWNode,iLayer)) THEN iStrmNodeID = iStrmNodeIDs(indxNode) iGWNodeID = AppGrid%AppNode(iGWNode)%ID BedThick(indxNode) = BottomElevs(indxNode) - Stratigraphy%BottomElev(iGWNode,iLayer) MessageArray(1) = 'Stream bed thickness at stream node ' // TRIM(IntToText(iStrmNodeID)) // ' and GW node '// TRIM(IntToText(iGWNodeID)) // ' penetrates into second active aquifer layer!' MessageArray(2) = 'It is adjusted to penetrate only into the top active layer.' CALL LogMessage(MessageArray(1:2),iWarn,ThisProcedure) END IF END IF CA = AppGrid%X(iGWUpstrmNode) - AppGrid%X(iGWNode) CB = AppGrid%Y(iGWUpstrmNode) - AppGrid%Y(iGWNode) F_DISTANCE = SQRT(CA*CA + CB*CB)/2d0 Conductivity(indxNode-1) = Conductivity(indxNode-1)*WetPerimeter(indxNode-1)*(F_DISTANCE+B_DISTANCE)/BedThick(indxNode-1) B_DISTANCE = F_DISTANCE END DO Conductivity(iDownstrmNode) = Conductivity(iDownstrmNode)*WetPerimeter(iDownstrmNode)*B_DISTANCE/BedThick(iDownstrmNode) END DO !Allocate memory ALLOCATE (Connector%Conductance(NStrmNodes) , Connector%rBedThickness(NStrmNodes) , Connector%StrmGWFlow(NStrmNodes) , STAT=ErrorCode) IF (ErrorCode .NE. 0) THEN CALL SetLastMessage('Error allocating memory for stream-gw connection data!',iFatal,ThisProcedure) iStat = -1 RETURN END IF !Store information Connector%Conductance = Conductivity Connector%rBedThickness = BedThick Connector%TimeUnitConductance = TimeUnitConductance Connector%StrmGWFlow = 0.0 IF (Connector%iInteractionType .EQ. iDisconnectAtBottomOfBed) THEN Connector%rDisconnectElev = BottomElevs - Connector%rBedThickness ELSE Connector%rDisconnectElev = BottomElevs END IF !Clear memory DEALLOCATE (iGWNodes , STAT=ErrorCode) END SUBROUTINE StrmGWConnector_v40_CompileConductance ! ------------------------------------------------------------- ! --- SIMULATE STREAM-GW INTERACTION ! ------------------------------------------------------------- SUBROUTINE StrmGWConnector_v40_Simulate(Connector,iNNodes,rGWHeads,rStrmHeads,rAvailableFlows,Matrix,WetPerimeterFunction,rMaxElevs) CLASS(StrmGWConnector_v40_Type) :: Connector INTEGER,INTENT(IN) :: iNNodes REAL(8),INTENT(IN) :: rGWHeads(:),rStrmHeads(:),rAvailableFlows(:) TYPE(MatrixType) :: Matrix CLASS(AbstractFunctionType),OPTIONAL,INTENT(IN) :: WetPerimeterFunction(:) !Not used in this version REAL(8),OPTIONAL,INTENT(IN) :: rMaxElevs(:) !Not used in this version !Local variables INTEGER :: iGWNode,iNodes_Connect(2),iNodes_RHS(2),indxStrm REAL(8) :: Conductance,rUpdateCOEFF(2),rUpdateCOEFF_Keep(2),rUpdateRHS(2),rDiff_GW,rGWHead, & rDiffGWSQRT,rStrmGWFlow,rStrmGWFlowAdj,rStrmGWFlowAdjSQRT,rDStrmGWFlowAdj,rFractionForGW, & rNodeAvailableFlow INTEGER,PARAMETER :: iCompIDs(2) = [f_iStrmComp , f_iGWComp] !Update matrix equations DO indxStrm=1,SIZE(rStrmHeads) !Corresponding GW node and conductance iGWNode = (Connector%iLayer(indxStrm)-1) * iNNodes + Connector%iGWNode(indxStrm) Conductance = Connector%Conductance(indxStrm) rFractionForGW = Connector%rFractionForGW(indxStrm) !Head differences rGWHead = rGWHeads(indxStrm) rDiff_GW = rGWHead - Connector%rDisconnectElev(indxStrm) rDiffGWSQRT = SQRT(rDiff_GW*rDiff_GW + f_rSmoothMaxP) !Available flow for node rNodeAvailableFlow = rAvailableFlows(indxStrm) !Calculate stream-gw interaction and update of Jacobian !-------------------------------------------- rStrmGWFlow = Conductance * (rStrmHeads(indxStrm) - MAX(rGWHead,Connector%rDisconnectElev(indxStrm))) !Stream is gaining; no need to worry about drying stream (i.e. stream-gw flow is not a function of upstream flows) IF (rStrmGWFlow .LT. 0.0) THEN Connector%StrmGWFlow(indxStrm) = rStrmGWFlow iNodes_Connect(1) = indxStrm iNodes_Connect(2) = iGWNode !Update Jacobian - entries for stream node rUpdateCOEFF_Keep(1) = Conductance rUpdateCOEFF_Keep(2) = -0.5d0 * Conductance * (1d0+rDiff_GW/rDiffGWSQRT) rUpdateCOEFF = rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iStrmComp,indxStrm,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Update Jacobian - entries for groundwater node rUpdateCOEFF = -rFractionForGW * rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iGWComp,iGWNode,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Stream is losing; we need to limit stream loss to available flow ELSE rStrmGWFlowAdj = rNodeAvailableFlow - rStrmGWFlow rStrmGWFlowAdjSQRT = SQRT(rStrmGWFlowAdj*rStrmGWFlowAdj + f_rSmoothMaxP) rDStrmGWFlowAdj = 0.5d0 * (1d0 + rStrmGWFlowAdj / rStrmGWFlowAdjSQRT) iNodes_Connect(1) = indxStrm iNodes_Connect(2) = iGWNode !Update Jacobian - entries for stream node rUpdateCOEFF_Keep(1) = Conductance * rDStrmGWFlowAdj rUpdateCOEFF_Keep(2) = -0.5d0 * Conductance * (1d0+rDiff_GW/rDiffGWSQRT) * rDStrmGWFlowAdj rUpdateCOEFF = rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iStrmComp,indxStrm,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Update Jacobian - entries for groundwater node rUpdateCOEFF = -rFractionForGW * rUpdateCOEFF_Keep CALL Matrix%UpdateCOEFF(f_iGWComp,iGWNode,2,iCompIDs,iNodes_Connect,rUpdateCOEFF) !Store flow exchange Connector%StrmGWFlow(indxStrm) = MIN(rNodeAvailableFlow , rStrmGWFlow) END IF !Update RHS iNodes_RHS(1) = indxStrm iNodes_RHS(2) = iGWNode rUpdateRHS(1) = Connector%StrmGWFlow(indxStrm) rUpdateRHS(2) = -Connector%StrmGWFlow(indxStrm) * rFractionForGW CALL Matrix%UpdateRHS(iCompIDs,iNodes_RHS,rUpdateRHS) END DO END SUBROUTINE StrmGWConnector_v40_Simulate END MODULE

code/SourceCode/Package_ComponentConnectors/StrmGWConnector/Class_StrmGWConnector_v40.f90

FUNCTION dayear(dd,mm,yyyy) ! IMPLICIT NONE ! ! Function arguments ! INTEGER :: dd,mm,yyyy INTEGER :: dayear ! ! Local variables ! INTEGER :: difdat ! ! + + + purpose + + + ! given a date in dd/mm/yyyy format, ! dayear will return the number of days ! from the first of that year. ! ! + + + keywords + + + ! date, utility ! ! + + + argument declarations + + + ! ! + + + argument definitions + + + ! dayear - returns the number of days from the first of that year ! dd - day ! mm - month ! yyyy - year ! ! + + + local variable definitions + + + ! difdat - the number of days between two dates. a function. This ! variable holds the value returned by the Diffdat function. ! Debe assumed this definition ! + + + function declarations + + + ! ! + + + end specifications + + + ! ! get the difference in days + 1 ! dayear = difdat(1,1,yyyy,dd,mm,yyyy) + 1 ! END FUNCTION dayear

Project Documents/Source Code Original/Dayear.f90

! { dg-do compile } ! { dg-options "-Wunused-dummy-argument -Wunused-parameter" } ! PR 48847 - we used to generate a warning for g(), and none for h() program main contains function f(g,h) interface real function g() end function g end interface interface real function h() ! { dg-warning "Unused dummy argument" } end function h end interface real :: f f = g() end function f end program main

validation_tests/llvm/f18/gfortran.dg/warn_unused_dummy_argument_3.f90

! ! Parallel Sparse BLAS version 3.5 ! (C) Copyright 2006-2018 ! Salvatore Filippone ! Alfredo Buttari ! ! Redistribution and use in source and binary forms, with or without ! modification, are permitted provided that the following conditions ! are met: ! 1. Redistributions of source code must retain the above copyright ! notice, this list of conditions and the following disclaimer. ! 2. Redistributions in binary form must reproduce the above copyright ! notice, this list of conditions, and the following disclaimer in the ! documentation and/or other materials provided with the distribution. ! 3. The name of the PSBLAS group or the names of its contributors may ! not be used to endorse or promote products derived from this ! software without specific written permission. ! ! THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS ! ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED ! TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR ! PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE PSBLAS GROUP OR ITS CONTRIBUTORS ! BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR ! CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF ! SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS ! INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN ! CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ! ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE ! POSSIBILITY OF SUCH DAMAGE. ! ! ! ! ! File: psi_i_crea_index.f90 ! ! Subroutine: psb_crea_index ! Converts a list of data exchanges from build format to assembled format. ! See psi_desc_index for a description of the formats. ! Works by first finding a suitable ordering for the data exchanges, ! then doing the actual conversion. ! ! Arguments: ! desc_a - type(psb_desc_type) The descriptor; in this context only the index ! mapping parts are used. ! index_in(:) - integer The index list, build format ! index_out(:) - integer(psb_ipk_), allocatable The index list, assembled format ! nxch - integer The number of data exchanges on the calling process ! nsnd - integer Total send buffer size on the calling process ! nrcv - integer Total receive buffer size on the calling process ! ! subroutine psi_i_crea_index(desc_a,index_in,index_out,nxch,nsnd,nrcv,info) use psb_realloc_mod use psb_desc_mod use psb_error_mod use psb_penv_mod use psb_timers_mod use psi_mod, psb_protect_name => psi_i_crea_index implicit none type(psb_desc_type), intent(in) :: desc_a integer(psb_ipk_), intent(out) :: info,nxch,nsnd,nrcv integer(psb_ipk_), intent(in) :: index_in(:) integer(psb_ipk_), allocatable, intent(inout) :: index_out(:) ! ....local scalars... type(psb_ctxt_type) :: ctxt integer(psb_ipk_) :: me, np, mode, err_act, dl_lda, ldl ! ...parameters... integer(psb_ipk_), allocatable :: length_dl(:), loc_dl(:),& & c_dep_list(:), dl_ptr(:) integer(psb_ipk_) :: dlmax, dlavg integer(psb_ipk_),parameter :: root=psb_root_,no_comm=-1 integer(psb_ipk_) :: debug_level, debug_unit character(len=20) :: name logical, parameter :: do_timings=.false., shuffle_dep_list=.false. integer(psb_ipk_), save :: idx_phase1=-1, idx_phase2=-1, idx_phase3=-1 integer(psb_ipk_), save :: idx_phase21=-1, idx_phase22=-1, idx_phase13=-1 info = psb_success_ name='psi_crea_index' call psb_erractionsave(err_act) debug_unit = psb_get_debug_unit() debug_level = psb_get_debug_level() ctxt = desc_a%get_ctxt() call psb_info(ctxt,me,np) if (np == -1) then info = psb_err_context_error_ call psb_errpush(info,name) goto 9999 endif if ((do_timings).and.(idx_phase1==-1)) & & idx_phase1 = psb_get_timer_idx("PSI_CREA_INDEX: phase1 ") if ((do_timings).and.(idx_phase2==-1)) & & idx_phase2 = psb_get_timer_idx("PSI_CREA_INDEX: phase2") if ((do_timings).and.(idx_phase3==-1)) & & idx_phase3 = psb_get_timer_idx("PSI_CREA_INDEX: phase3") if ((do_timings).and.(idx_phase21==-1)) & & idx_phase21 = psb_get_timer_idx("PSI_CREA_INDEX: phase21 ") if ((do_timings).and.(idx_phase22==-1)) & & idx_phase22 = psb_get_timer_idx("PSI_CREA_INDEX: phase22") !!$ if ((do_timings).and.(idx_phase13==-1)) & !!$ & idx_phase13 = psb_get_timer_idx("PSI_CREA_INDEX: phase13") ! ...extract dependence list (ordered list of identifer process ! which every process must communcate with... if (debug_level >= psb_debug_inner_) & & write(debug_unit,*) me,' ',trim(name),': calling extract_loc_dl' mode = 1 if (do_timings) call psb_tic(idx_phase1) call psi_extract_loc_dl(ctxt,& & desc_a%is_bld(), desc_a%is_upd(),& & index_in, loc_dl,length_dl,info) dlmax = maxval(length_dl(:)) dlavg = (sum(length_dl(:))+np-1)/np if (do_timings) call psb_toc(idx_phase1) if (do_timings) call psb_tic(idx_phase2) if (choose_sorting(dlmax,dlavg,np)) then if (do_timings) call psb_tic(idx_phase21) call psi_bld_glb_dep_list(ctxt,& & loc_dl,length_dl,c_dep_list,dl_ptr,info) if (info /= 0) then write(0,*) me,trim(name),' From bld_glb_list ',info end if if (do_timings) call psb_toc(idx_phase21) if (do_timings) call psb_tic(idx_phase22) call psi_sort_dl(dl_ptr,c_dep_list,length_dl,ctxt,info) if (info /= 0) then write(0,*) me,trim(name),' From sort_dl ',info end if ldl = length_dl(me) loc_dl = c_dep_list(dl_ptr(me):dl_ptr(me)+ldl-1) if (do_timings) call psb_toc(idx_phase22) else ! Do nothing ldl = length_dl(me) loc_dl = loc_dl(1:ldl) if (shuffle_dep_list) then ! ! Apply a random shuffle to the dependency list ! should improve the behaviour ! block ! Algorithm 3.4.2P from TAOCP vol 2. integer(psb_ipk_) :: tmp integer :: j,k real :: u do j=ldl,2,-1 call random_number(u) k = min(j,floor(j*u)+1) tmp = loc_dl(k) loc_dl(k) = loc_dl(j) loc_dl(j) = tmp end do end block end if end if if (do_timings) call psb_toc(idx_phase2) if (do_timings) call psb_tic(idx_phase3) if(debug_level >= psb_debug_inner_)& & write(debug_unit,*) me,' ',trim(name),': calling psi_desc_index',ldl,':',loc_dl(1:ldl) ! Do the actual format conversion. if (dlmax == 0) then ! There is a sufficiently large number of cases ! where the initial exchange list is empty that ! it's worthwhile to take a shortcut. call psb_realloc(ione,index_out,info) index_out(1) = -1 else call psi_desc_index(desc_a,index_in,loc_dl,ldl,nsnd,nrcv,index_out,info) endif if(debug_level >= psb_debug_inner_) & & write(debug_unit,*) me,' ',trim(name),': out of psi_desc_index',& & size(index_out) nxch = ldl if(info /= psb_success_) then call psb_errpush(psb_err_from_subroutine_,name,a_err='psi_desc_index') goto 9999 end if if (do_timings) call psb_toc(idx_phase3) if (allocated(length_dl)) deallocate(length_dl,stat=info) if (info /= 0) then info = psb_err_alloc_dealloc_ goto 9999 end if if(debug_level >= psb_debug_inner_) & & write(debug_unit,*) me,' ',trim(name),': done' call psb_erractionrestore(err_act) return 9999 call psb_error_handler(ctxt,err_act) return contains function choose_sorting(dlmax,dlavg,np) result(val) implicit none integer(psb_ipk_), intent(in) :: dlmax,dlavg,np logical :: val val = .not.(((dlmax>(26*4)).or.((dlavg>=(26*2)).and.(np>=128)))) val = (dlmax<16) !val = .true. val = .false. end function choose_sorting end subroutine psi_i_crea_index

base/internals/psi_crea_index.f90

!######################################################################## !PURPOSE : Diagonalize the Effective Impurity Problem !|{ImpUP1,...,ImpUPN},BathUP>|{ImpDW1,...,ImpDWN},BathDW> !######################################################################## module ED_DIAG USE SF_CONSTANTS USE SF_LINALG, only: eigh USE SF_TIMER, only: start_timer,stop_timer,eta USE SF_IOTOOLS, only:reg,free_unit ! USE ED_INPUT_VARS USE ED_VARS_GLOBAL USE ED_SETUP USE ED_HAMILTONIAN ! implicit none private public :: diagonalize_impurity contains !+-------------------------------------------------------------------+ !PURPOSE : diagonalize the Hamiltonian in each sector and find the ! spectrum DOUBLE COMPLEX !+------------------------------------------------------------------+ subroutine diagonalize_impurity integer :: nup,ndw,isector,dim integer :: sz,nt integer :: i,j,unit real(8),dimension(Nsectors) :: e0 real(8) :: egs logical :: Tflag ! e0=1000.d0 write(LOGfile,"(A)")"Diagonalize impurity H:" call start_timer() ! ! sector: do isector=1,Nsectors ! Dim = getdim(isector) ! if(ed_verbose==3)then nup = getnup(isector) ndw = getndw(isector) write(LOGfile,"(A,I4,A6,I2,A6,I2,A6,I15)")"Solving sector:",isector,", nup:",nup,", ndw:",ndw,", dim=",getdim(isector) elseif(ed_verbose==1.OR.ed_verbose==2)then call eta(isector,Nsectors,LOGfile) endif ! call setup_Hv_sector(isector) call ed_buildH_c(espace(isector)%M) call delete_Hv_sector() call eigh(espace(isector)%M,espace(isector)%e,'V','U') if(dim==1)espace(isector)%M=one ! e0(isector)=minval(espace(isector)%e) ! enddo sector ! call stop_timer(LOGfile) ! !Get the ground state energy and rescale energies egs=minval(e0) forall(isector=1:Nsectors)espace(isector)%e = espace(isector)%e - egs ! !Get the partition function Z zeta_function=0.d0;zeta_function=0.d0 do isector=1,Nsectors dim=getdim(isector) do i=1,dim zeta_function=zeta_function+exp(-beta*espace(isector)%e(i)) enddo enddo ! write(LOGfile,"(A)")"DIAG resume:" open(free_unit(unit),file='egs'//reg(ed_file_suffix)//".ed",position='append') do isector=1,Nsectors if(e0(isector)/=0d0)cycle nup = getnup(isector) ndw = getndw(isector) write(LOGfile,"(A,F20.12,2I4)")'Egs =',e0(isector),nup,ndw write(unit,"(F20.12,2I4)")e0(isector),nup,ndw enddo write(LOGfile,"(A,F20.12)")'Z =',zeta_function close(unit) return end subroutine diagonalize_impurity end MODULE ED_DIAG

FED_DIAG.f90

# List HDL source code files in folder hdl/ <FPGA_TOP>.v

templates/hdl.f

C C C SUBROUTINE COPYC I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the character array ZIP of size LEN to C the character array X of size LEN. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN CHARACTER(1)ZIP(LEN),X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of character arrays C ZIP - input character array C X - output character array C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE COPYD I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the double precision array ZIP of size LEN C to the double precision array X. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN DOUBLE PRECISION ZIP(LEN), X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of arrays C ZIP - input array of size LEN C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE COPYI I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the integer array ZIP of size LEN to C the integer array X. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN INTEGER ZIP(LEN), X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of arrays C ZIP - input array of size LEN C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE COPYR I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Copy the real array ZIP of size LEN to the C real array X. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN REAL ZIP(LEN), X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of arrays C ZIP - input array of size LEN C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPC I (LEN, ZIP, O X) C C Fill the character array X of size LEN with C the given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN CHARACTER(1)ZIP,X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of character array C ZIP - character to fill array C X - character array to be filled C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPD I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Fill the double precision array X of size LEN C with the given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN DOUBLE PRECISION ZIP, X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of array C ZIP - value to fill array C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPI I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Fill the integer array X of size LEN with C the given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN, ZIP INTEGER X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of array C ZIP - value to fill array C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END C C C SUBROUTINE ZIPR I (LEN, ZIP, O X) C C + + + PURPOSE + + + C Fill the real array X of size LEN with the C given value ZIP. C C + + + DUMMY ARGUMENTS + + + INTEGER LEN REAL ZIP, X(LEN) C C + + + ARGUMENT DEFINITIONS + + + C LEN - size of array C ZIP - value to fill array C X - output array of size LEN C C + + + END SPECIFICATIONS + + + C X = ZIP C RETURN END

wdm_support/UTCP90.f

program demo_which use M_io, only : which implicit none write(*,*)'ls is ',which('ls') write(*,*)'dir is ',which('dir') write(*,*)'install is ',which('install') end program demo_which

example/demo_which.f90

!-------------------------------------------------------------------------------- !M+ ! NAME: ! netCDF_Variable_Utility ! ! PURPOSE: ! Module containing utility routines for netCDF file variable access. ! ! CATEGORY: ! netCDF ! ! LANGUAGE: ! Fortran-95 ! ! CALLING SEQUENCE: ! USE netCDF_Variable_Utility ! ! MODULES: ! Type_Kinds: Module containing data type kind definitions. ! ! Message_Handler: Module to define error codes and handle error ! conditions ! USEs: FILE_UTILITY module ! ! netcdf: Module supplied with the Fortran 90 version of the ! netCDF libraries (at least v3.5.0). ! See http://www.unidata.ucar.edu/packages/netcdf ! ! CONTAINS: ! Get_netCDF_Variable: Function to retrieve a netCDF file variable ! by name. This function is simply a wrapper ! for some of the NetCDF library functions to ! simplify the retrieval of variable data with ! error checking. ! ! Put_netCDF_Variable: Function to write a netCDF file variable ! by name. This function is simply a wrapper ! for some of the NetCDF library functions to ! simplify the writing of variable data with ! error checking. ! ! EXTERNALS: ! None. ! ! COMMON BLOCKS: ! None. ! ! CREATION HISTORY: ! Written by: Paul van Delst, CIMSS/SSEC, 20-Nov-2000 ! [email protected] ! ! Copyright (C) 2000, 2004 Paul van Delst ! !M- !-------------------------------------------------------------------------------- MODULE netCDF_Variable_Utility ! -------------------- ! Declare modules used ! -------------------- USE Type_Kinds USE Message_Handler USE netcdf ! ----------------------- ! Disable implicit typing ! ----------------------- IMPLICIT NONE ! ---------- ! Visibility ! ---------- PRIVATE PUBLIC :: Get_netCDF_Variable PUBLIC :: Put_netCDF_Variable ! --------------------- ! Procedure overloading ! --------------------- ! -- Functions to get variable data INTERFACE Get_netCDF_Variable ! -- Byte integer specific functions MODULE PROCEDURE get_scalar_Byte MODULE PROCEDURE get_rank1_Byte MODULE PROCEDURE get_rank2_Byte MODULE PROCEDURE get_rank3_Byte MODULE PROCEDURE get_rank4_Byte MODULE PROCEDURE get_rank5_Byte MODULE PROCEDURE get_rank6_Byte MODULE PROCEDURE get_rank7_Byte ! -- Short integer specific functions MODULE PROCEDURE get_scalar_Short MODULE PROCEDURE get_rank1_Short MODULE PROCEDURE get_rank2_Short MODULE PROCEDURE get_rank3_Short MODULE PROCEDURE get_rank4_Short MODULE PROCEDURE get_rank5_Short MODULE PROCEDURE get_rank6_Short MODULE PROCEDURE get_rank7_Short ! -- Long integer specific functions MODULE PROCEDURE get_scalar_Long MODULE PROCEDURE get_rank1_Long MODULE PROCEDURE get_rank2_Long MODULE PROCEDURE get_rank3_Long MODULE PROCEDURE get_rank4_Long MODULE PROCEDURE get_rank5_Long MODULE PROCEDURE get_rank6_Long MODULE PROCEDURE get_rank7_Long ! -- Single precision float specific functions MODULE PROCEDURE get_scalar_Single MODULE PROCEDURE get_rank1_Single MODULE PROCEDURE get_rank2_Single MODULE PROCEDURE get_rank3_Single MODULE PROCEDURE get_rank4_Single MODULE PROCEDURE get_rank5_Single MODULE PROCEDURE get_rank6_Single MODULE PROCEDURE get_rank7_Single ! -- Double precision float specific functions MODULE PROCEDURE get_scalar_Double MODULE PROCEDURE get_rank1_Double MODULE PROCEDURE get_rank2_Double MODULE PROCEDURE get_rank3_Double MODULE PROCEDURE get_rank4_Double MODULE PROCEDURE get_rank5_Double MODULE PROCEDURE get_rank6_Double MODULE PROCEDURE get_rank7_Double ! -- Character specific functions MODULE PROCEDURE get_scalar_Character MODULE PROCEDURE get_rank1_Character MODULE PROCEDURE get_rank2_Character MODULE PROCEDURE get_rank3_Character MODULE PROCEDURE get_rank4_Character MODULE PROCEDURE get_rank5_Character MODULE PROCEDURE get_rank6_Character MODULE PROCEDURE get_rank7_Character END INTERFACE Get_netCDF_Variable ! -- Functions to put variable data INTERFACE Put_netCDF_Variable ! -- Byte integer specific functions MODULE PROCEDURE put_scalar_Byte MODULE PROCEDURE put_rank1_Byte MODULE PROCEDURE put_rank2_Byte MODULE PROCEDURE put_rank3_Byte MODULE PROCEDURE put_rank4_Byte MODULE PROCEDURE put_rank5_Byte MODULE PROCEDURE put_rank6_Byte MODULE PROCEDURE put_rank7_Byte ! -- Short integer specific functions MODULE PROCEDURE put_scalar_Short MODULE PROCEDURE put_rank1_Short MODULE PROCEDURE put_rank2_Short MODULE PROCEDURE put_rank3_Short MODULE PROCEDURE put_rank4_Short MODULE PROCEDURE put_rank5_Short MODULE PROCEDURE put_rank6_Short MODULE PROCEDURE put_rank7_Short ! -- Long integer specific functions MODULE PROCEDURE put_scalar_Long MODULE PROCEDURE put_rank1_Long MODULE PROCEDURE put_rank2_Long MODULE PROCEDURE put_rank3_Long MODULE PROCEDURE put_rank4_Long MODULE PROCEDURE put_rank5_Long MODULE PROCEDURE put_rank6_Long MODULE PROCEDURE put_rank7_Long ! -- Single precision float specific functions MODULE PROCEDURE put_scalar_Single MODULE PROCEDURE put_rank1_Single MODULE PROCEDURE put_rank2_Single MODULE PROCEDURE put_rank3_Single MODULE PROCEDURE put_rank4_Single MODULE PROCEDURE put_rank5_Single MODULE PROCEDURE put_rank6_Single MODULE PROCEDURE put_rank7_Single ! -- Double precision float specific functions MODULE PROCEDURE put_scalar_Double MODULE PROCEDURE put_rank1_Double MODULE PROCEDURE put_rank2_Double MODULE PROCEDURE put_rank3_Double MODULE PROCEDURE put_rank4_Double MODULE PROCEDURE put_rank5_Double MODULE PROCEDURE put_rank6_Double MODULE PROCEDURE put_rank7_Double ! -- Character specific functions MODULE PROCEDURE put_scalar_Character MODULE PROCEDURE put_rank1_Character MODULE PROCEDURE put_rank2_Character MODULE PROCEDURE put_rank3_Character MODULE PROCEDURE put_rank4_Character MODULE PROCEDURE put_rank5_Character MODULE PROCEDURE put_rank6_Character MODULE PROCEDURE put_rank7_Character END INTERFACE Put_netCDF_Variable ! ----------------- ! Module parameters ! ----------------- ! -- Module RCS Id string CHARACTER( * ), PRIVATE, PARAMETER :: MODULE_RCS_ID = & CONTAINS FUNCTION get_scalar_Byte( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output INTEGER( Byte ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Byte FUNCTION get_scalar_Short( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output INTEGER( Short ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Short FUNCTION get_scalar_Long( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output INTEGER( Long ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Long FUNCTION get_scalar_Single( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output REAL( Single ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Single FUNCTION get_scalar_Double( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output REAL( Double ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & START = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_Double FUNCTION get_scalar_CHARACTER( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific output CHARACTER( * ), INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(scalar CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: DimID CHARACTER( NF90_MAX_NAME ) :: DimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = DimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & DimID(1), & Len = String_Length, & Name = DimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( DimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Determine the maximum possible string length String_Length = MIN( String_Length, LEN( Variable_Value ) ) !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value( 1:String_Length ), & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_scalar_CHARACTER FUNCTION get_rank1_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Byte FUNCTION get_rank2_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Byte FUNCTION get_rank3_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Byte FUNCTION get_rank4_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Byte FUNCTION get_rank5_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Byte FUNCTION get_rank6_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Byte FUNCTION get_rank7_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Byte ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Byte FUNCTION get_rank1_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Short FUNCTION get_rank2_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Short FUNCTION get_rank3_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Short FUNCTION get_rank4_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Short FUNCTION get_rank5_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Short FUNCTION get_rank6_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Short FUNCTION get_rank7_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Short ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Short FUNCTION get_rank1_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Long FUNCTION get_rank2_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Long FUNCTION get_rank3_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Long FUNCTION get_rank4_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Long FUNCTION get_rank5_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Long FUNCTION get_rank6_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Long FUNCTION get_rank7_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output INTEGER( Long ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Long FUNCTION get_rank1_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Single FUNCTION get_rank2_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Single FUNCTION get_rank3_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Single FUNCTION get_rank4_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Single FUNCTION get_rank5_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Single FUNCTION get_rank6_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Single FUNCTION get_rank7_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Single ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Single FUNCTION get_rank1_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_Double FUNCTION get_rank2_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_Double FUNCTION get_rank3_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_Double FUNCTION get_rank4_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_Double FUNCTION get_rank5_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_Double FUNCTION get_rank6_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_Double FUNCTION get_rank7_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output REAL( Double ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! ----------------------------- ! Fill optional return argument ! ----------------------------- IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL display_message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_Double FUNCTION get_rank1_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank1 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank1_CHARACTER FUNCTION get_rank2_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank2 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank2_CHARACTER FUNCTION get_rank3_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank3 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank3_CHARACTER FUNCTION get_rank4_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank4 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank4_CHARACTER FUNCTION get_rank5_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank5 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank5_CHARACTER FUNCTION get_rank6_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank6 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank6_CHARACTER FUNCTION get_rank7_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Output Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific output CHARACTER( * ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( OUT ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Get_netCDF_Variable(rank7 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# ! -- Clear the output variable string array (to prevent ! -- possible random characters in unused portion) Variable_Value = ' ' ! -- Fill the variable NF90_Status = NF90_GET_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error reading variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION get_rank7_CHARACTER FUNCTION put_scalar_Byte( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input INTEGER( Byte ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Byte FUNCTION put_scalar_Short( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input INTEGER( Short ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Short FUNCTION put_scalar_Long( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input INTEGER( Long ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Long FUNCTION put_scalar_Single( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input REAL( Single ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Single FUNCTION put_scalar_Double( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input REAL( Double ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_Double FUNCTION put_scalar_CHARACTER( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type specific input CHARACTER( * ), INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(scalar CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: DimID CHARACTER( NF90_MAX_NAME ) :: DimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = DimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & DimID(1), & Len = String_Length, & Name = DimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( DimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Determine the maximum possible string length String_Length = MIN( String_Length, LEN( Variable_Value ) ) !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value( 1:String_Length ), & Start = Start ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_scalar_CHARACTER FUNCTION put_rank1_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Byte FUNCTION put_rank2_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Byte FUNCTION put_rank3_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Byte FUNCTION put_rank4_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Byte FUNCTION put_rank5_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Byte FUNCTION put_rank6_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Byte FUNCTION put_rank7_Byte ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Byte ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Byte)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Byte FUNCTION put_rank1_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Short FUNCTION put_rank2_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Short FUNCTION put_rank3_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Short FUNCTION put_rank4_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Short FUNCTION put_rank5_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Short FUNCTION put_rank6_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Short FUNCTION put_rank7_Short ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Short ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Short)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Short FUNCTION put_rank1_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Long FUNCTION put_rank2_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Long FUNCTION put_rank3_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Long FUNCTION put_rank4_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Long FUNCTION put_rank5_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Long FUNCTION put_rank6_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Long FUNCTION put_rank7_Long ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input INTEGER( Long ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Long)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Long FUNCTION put_rank1_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Single FUNCTION put_rank2_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Single FUNCTION put_rank3_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Single FUNCTION put_rank4_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Single FUNCTION put_rank5_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Single FUNCTION put_rank6_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Single FUNCTION put_rank7_Single ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Single ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Single)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Single FUNCTION put_rank1_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_Double FUNCTION put_rank2_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_Double FUNCTION put_rank3_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_Double FUNCTION put_rank4_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_Double FUNCTION put_rank5_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_Double FUNCTION put_rank6_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_Double FUNCTION put_rank7_Double ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input REAL( Double ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 Double)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_Double FUNCTION put_rank1_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank1 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank1_CHARACTER FUNCTION put_rank2_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank2 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank2_CHARACTER FUNCTION put_rank3_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank3 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank3_CHARACTER FUNCTION put_rank4_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank4 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank4_CHARACTER FUNCTION put_rank5_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank5 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank5_CHARACTER FUNCTION put_rank6_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank6 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank6_CHARACTER FUNCTION put_rank7_CHARACTER ( & NC_FileID, & ! Input Variable_Name, & ! Input Variable_Value, & ! Input Start, & ! Optional input Count, & ! Optional input Stride, & ! Optional input Map, & ! Optional input Variable_ID, & ! Optional output Message_Log ) & ! Error messaging RESULT ( Error_Status ) !#--------------------------------------------------------------------------# !# -- TYPE DECLARATIONS -- # !#--------------------------------------------------------------------------# ! --------- ! Arguments ! --------- ! -- Input INTEGER, INTENT( IN ) :: NC_FileID CHARACTER( * ), INTENT( IN ) :: Variable_Name ! -- Type and rank specific input CHARACTER( * ), DIMENSION( :, :, :, :, :, :, : ), & INTENT( IN ) :: Variable_Value ! -- Optional input INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Start INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Count INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Stride INTEGER, DIMENSION( : ), OPTIONAL, INTENT( IN ) :: Map ! -- Optional output INTEGER, OPTIONAL, INTENT( OUT ) :: Variable_ID ! -- Error messaging CHARACTER( * ), OPTIONAL, INTENT( IN ) :: Message_Log ! --------------- ! Function result ! --------------- INTEGER :: Error_Status ! ---------------- ! Local parameters ! ---------------- CHARACTER( * ), PARAMETER :: ROUTINE_NAME = 'Put_netCDF_Variable(rank7 CHARACTER)' ! --------------- ! Local variables ! --------------- INTEGER :: NF90_Status INTEGER :: varID INTEGER, DIMENSION( NF90_MAX_VAR_DIMS ) :: dimID CHARACTER( NF90_MAX_NAME ) :: dimNAME INTEGER :: String_Length !#--------------------------------------------------------------------------# !# -- ASSIGN A SUCCESSFUL RETURN STATUS -- # !#--------------------------------------------------------------------------# Error_Status = SUCCESS !#--------------------------------------------------------------------------# !# -- GET THE VARIABLE ID -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_INQ_VARID( NC_FileID, & TRIM( Variable_Name ), & varID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable ID for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF IF ( PRESENT( Variable_ID ) ) Variable_ID = varID !#--------------------------------------------------------------------------# !# -- DETERMINE THE STRING LENGTH -- # !#--------------------------------------------------------------------------# ! -- Get the dimension IDs NF90_Status = NF90_INQUIRE_VARIABLE( NC_FileID, & varID, & DimIDs = dimID ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Get the first dimension value. ! -- This is the string length. NF90_Status = NF90_INQUIRE_DIMENSION( NC_FileID, & dimID(1), & Len = String_Length, & Name = dimNAME ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error inquiring variable '// & TRIM( Variable_Name )//' dimension '// & TRIM( dimNAME )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF ! -- Make sure they match IF ( String_Length /= LEN( Variable_Value ) ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Input '// & TRIM( Variable_Name )// & ' string length different from netCDF dataset.', & Error_Status, & Message_Log = Message_Log ) RETURN END IF !#--------------------------------------------------------------------------# !# -- PUT THE VARIABLE VALUE -- # !#--------------------------------------------------------------------------# NF90_Status = NF90_PUT_VAR( NC_FileID, & varID, & Variable_Value, & Start = Start, & Count = Count, & Stride = Stride, & Map = Map ) IF ( NF90_Status /= NF90_NOERR ) THEN Error_Status = FAILURE CALL Display_Message( ROUTINE_NAME, & 'Error writing variable value for '// & TRIM( Variable_Name )// & ' - '// & TRIM( NF90_STRERROR( NF90_Status ) ), & Error_Status, & Message_Log = Message_Log ) RETURN END IF END FUNCTION put_rank7_CHARACTER END MODULE netCDF_Variable_Utility !------------------------------------------------------------------------------- ! -- MODIFICATION HISTORY -- !------------------------------------------------------------------------------- ! ! ! $Date: 2006/07/26 21:39:05 $ ! ! $Revision: 1.2 $ ! ! $Name: $ ! ! $State: Exp $ ! ! $Log: netCDF_Variable_Utility.f90,v $ ! Revision 1.2 2006/07/26 21:39:05 wd20pd ! Additional replacement of "Error_Handler" string with "Message_Handler" ! in documentaiton blocks. ! ! Revision 1.1 2006/06/08 21:47:55 wd20pd ! Initial checkin. ! ! Revision 1.9 2006/05/02 16:58:03 dgroff ! *** empty log message *** ! ! Revision 1.8 2005/01/11 18:49:42 paulv ! - Regenerated from updated pp files. ! ! Revision 1.6 2003/05/16 15:28:19 paulv ! - Added correct dimension indices for Variable_Value test in the ! character Get() and Put() functions. ! ! Revision 1.5 2003/02/28 22:13:37 paulv ! - Completed addition of character typed functions for netCDF variable ! extraction. Partially tested. ! ! Revision 1.4 2003/02/19 13:34:10 paulv ! - Added functions to allow character variable scalar and array data to ! be retrieved from a netCDF dataset. ! ! Revision 1.3 2002/12/23 21:16:13 paulv ! - Added Put_netCDF_Variable() functions. ! ! Revision 1.2 2002/05/20 17:59:01 paulv ! - Updated header documentation. ! ! Revision 1.1 2002/05/20 17:03:57 paulv ! Initial checkin. Routines not yet tested. ! ! ! !

src/Utility/netCDF/netCDF_Variable_Utility.f90

C*********************************************************************** C Module: asetup.f C C Copyright (C) 2002 Mark Drela, Harold Youngren C C This program is free software; you can redistribute it and/or modify C it under the terms of the GNU General Public License as published by C the Free Software Foundation; either version 2 of the License, or C (at your option) any later version. C C This program is distributed in the hope that it will be useful, C but WITHOUT ANY WARRANTY; without even the implied warranty of C MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the C GNU General Public License for more details. C C You should have received a copy of the GNU General Public License C along with this program; if not, write to the Free Software C Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA. C*********************************************************************** SUBROUTINE SETUP C C...PURPOSE To set up the vortex lattice calculation. C C Additional geometry data is calculated. C An AIC matrix is assembled and solutions C obtained for 0 deg and 90 deg angle of attack C (for later superposition in AERO). The matrix C defining normalwash at the bound vortex midpoints C is calculated. This is used to define the bound vortex C normalwash for 0 and 90 deg angles of attack (used C for superposition in AERO). C C...INPUT Global Data in labelled commons, defining configuration C C...OUTPUT GAM(i,1..3) Vortex strengths for unit VINF1,2,3 C GAM(i,4..6) Vortex strengths for unit WROT1,2,3 C W Normalwash at vortex midpoints for GAM C C...COMMENTS C INCLUDE 'AVL.INC' REAL WORK(NVMAX) C AMACH = MACH BETM = SQRT(1.0 - AMACH**2) C C IF(.NOT.LAIC) THEN WRITE(*,*) ' Building normalwash AIC matrix...' CALL VVOR(BETM,IYSYM,YSYM,IZSYM,ZSYM,VRCORE, & NVOR,RV1,RV2,NSURFV,CHORDV, & NVOR,RC , NSURFV,.FALSE., & WC_GAM,NVMAX) DO I = 1, NVOR DO J = 1, NVOR AICN(I,J) = WC_GAM(1,I,J)*ENC(1,I) & + WC_GAM(2,I,J)*ENC(2,I) & + WC_GAM(3,I,J)*ENC(3,I) LVNC(I) = .TRUE. ccc write(*,*) i, j, aicn(i,j) !@@@ ENDDO ENDDO C----- process each surface which does not shed a wake DO 10 N = 1, NSURF IF(LFWAKE(N)) GO TO 10 C------- go over TE control points on this surface J1 = JFRST(N) JN = JFRST(N) + NJ(N)-1 C DO J = J1, JN I1 = IJFRST(J) IV = IJFRST(J) + NVSTRP(J) - 1 C--------- clear system row for TE control point DO JV = 1, NVOR AICN(IV,JV) = 0. ENDDO LVNC(IV) = .FALSE. C--------- set sum_strip(Gamma) = 0 for this strip DO JV = I1, IV AICN(IV,JV) = 1.0 ENDDO ENDDO 10 CONTINUE C CC...Holdover from HPV hydro project for forces near free surface CC...Eliminates excluded vortices from eqns which are below z=Zsym C CALL MUNGEA C WRITE(*,*) ' Factoring normalwash AIC matrix...' CALL LUDCMP(NVMAX,NVOR,AICN,IAPIV,WORK) C LAIC = .TRUE. ENDIF C C IF(.NOT.LSRD) THEN WRITE(*,*) ' Building source+doublet strength AIC matrix...' CALL SRDSET(BETM,XYZREF, & NBODY,LFRST,NLMAX, & NL,RL,RADL, & SRC_U,DBL_U) WRITE(*,*) ' Building source+doublet velocity AIC matrix...' NU = 6 CALL VSRD(BETM,IYSYM,YSYM,IZSYM,ZSYM,SRCORE, & NBODY,LFRST,NLMAX, & NL,RL,RADL, & NU,SRC_U,DBL_U, & NVOR,RC, & WCSRD_U,NVMAX) LSRD = .TRUE. ENDIF C IF(.NOT.LVEL) THEN WRITE(*,*) ' Building bound-vortex velocity matrix...' CALL VVOR(BETM,IYSYM,YSYM,IZSYM,ZSYM,VRCORE, & NVOR,RV1,RV2,NSURFV,CHORDV, & NVOR,RV , NSURFV,.TRUE., & WV_GAM,NVMAX) C NU = 6 CALL VSRD(BETM,IYSYM,YSYM,IZSYM,ZSYM,SRCORE, & NBODY,LFRST,NLMAX, & NL,RL,RADL, & NU,SRC_U,DBL_U, & NVOR,RV , & WVSRD_U,NVMAX) C LVEL = .TRUE. ENDIF C RETURN END ! SETUP SUBROUTINE GUCALC INCLUDE 'AVL.INC' REAL RROT(3), VUNIT(3), WUNIT(3) C C---- setup BC's at control points for unit freestream,rotation vectors, C and back-substitute to obtain corresponding vortex circulations C C---- go over freestream velocity components u,v,w = f(V,beta,alpha) DO 10 IU = 1, 3 C------ go over all control points DO I = 1, NVOR IF(LVNC(I)) THEN C--------- this c.p. has V.n equation... VUNIT(1) = 0. VUNIT(2) = 0. VUNIT(3) = 0. IF(LVALBE(I)) THEN C---------- direct freestream influence is enabled for this c.p. VUNIT(IU) = VUNIT(IU) + 1.0 ENDIF C--------- always add on indirect freestream influence via BODY sources and doublets VUNIT(1) = VUNIT(1) + WCSRD_U(1,I,IU) VUNIT(2) = VUNIT(2) + WCSRD_U(2,I,IU) VUNIT(3) = VUNIT(3) + WCSRD_U(3,I,IU) C--------- set r.h.s. for V.n equation GAM_U_0(I,IU) = -DOT(ENC(1,I),VUNIT) DO N = 1, NCONTROL GAM_U_D(I,IU,N) = -DOT(ENC_D(1,I,N),VUNIT) ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = -DOT(ENC_G(1,I,N),VUNIT) ENDDO ELSE C--------- just clear r.h.s. GAM_U_0(I,IU) = 0. DO N = 1, NCONTROL GAM_U_D(I,IU,N) = 0. ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = 0. ENDDO ENDIF ENDDO CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_0(1,IU)) DO N = 1, NCONTROL CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_D(1,IU,N)) ENDDO DO N = 1, NDESIGN CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_G(1,IU,N)) ENDDO 10 CONTINUE C C---- go over freestream rotation components p,q,r DO 20 IU = 4, 6 C------ go over all control points DO I = 1, NVOR IF(LVNC(I)) THEN C--------- this c.p. has V.n equation WUNIT(1) = 0. WUNIT(2) = 0. WUNIT(3) = 0. IF(LVALBE(I)) THEN C---------- direct freestream influence is enabled for this c.p. WUNIT(IU-3) = WUNIT(IU-3) + 1.0 ENDIF RROT(1) = RC(1,I) - XYZREF(1) RROT(2) = RC(2,I) - XYZREF(2) RROT(3) = RC(3,I) - XYZREF(3) CALL CROSS(RROT,WUNIT,VUNIT) C--------- always add on indirect freestream influence via BODY sources and doublets VUNIT(1) = VUNIT(1) + WCSRD_U(1,I,IU) VUNIT(2) = VUNIT(2) + WCSRD_U(2,I,IU) VUNIT(3) = VUNIT(3) + WCSRD_U(3,I,IU) C--------- set r.h.s. for V.n equation GAM_U_0(I,IU) = -DOT(ENC(1,I),VUNIT) DO N = 1, NCONTROL GAM_U_D(I,IU,N) = -DOT(ENC_D(1,I,N),VUNIT) ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = -DOT(ENC_G(1,I,N),VUNIT) ENDDO ELSE C--------- just clear r.h.s. GAM_U_0(I,IU) = 0. DO N = 1, NCONTROL GAM_U_D(I,IU,N) = 0. ENDDO DO N = 1, NDESIGN GAM_U_G(I,IU,N) = 0. ENDDO ENDIF ENDDO CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_0(1,IU)) DO N = 1, NCONTROL CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_D(1,IU,N)) ENDDO DO N = 1, NDESIGN CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_U_G(1,IU,N)) ENDDO 20 CONTINUE C RETURN END ! GUCALC SUBROUTINE GDCALC(NQDEF,LQDEF,ENC_Q,GAM_Q) INCLUDE 'AVL.INC' LOGICAL LQDEF(*) REAL ENC_Q(3,NVMAX,*), GAM_Q(NVMAX,*) C C REAL RROT(3), VROT(3), VC(3) C IF(NQDEF.EQ.0) RETURN C C---- Setup variational BC's at the control points DO 100 IQ = 1, NQDEF C------ don't bother if this control variable is undefined IF(.NOT.LQDEF(IQ)) GO TO 100 C DO I = 1, NVOR IF(LVNC(I)) THEN IF(LVALBE(I)) THEN RROT(1) = RC(1,I) - XYZREF(1) RROT(2) = RC(2,I) - XYZREF(2) RROT(3) = RC(3,I) - XYZREF(3) CALL CROSS(RROT,WROT,VROT) DO K = 1, 3 VC(K) = VINF(K) & + VROT(K) ENDDO ELSE VC(1) = 0. VC(2) = 0. VC(3) = 0. ENDIF DO K = 1, 3 VC(K) = VC(K) & + WCSRD_U(K,I,1)*VINF(1) & + WCSRD_U(K,I,2)*VINF(2) & + WCSRD_U(K,I,3)*VINF(3) & + WCSRD_U(K,I,4)*WROT(1) & + WCSRD_U(K,I,5)*WROT(2) & + WCSRD_U(K,I,6)*WROT(3) ENDDO C GAM_Q(I,IQ) = -DOT(ENC_Q(1,I,IQ),VC) ELSE GAM_Q(I,IQ) = 0. ENDIF ENDDO C******************************************************************** C...Holdover from HPV hydro project for forces near free surface C...Eliminates excluded vortex equations for strips with z<Zsym ccc CALL MUNGEB(GAM_Q(1,IQ)) C******************************************************************** C CALL BAKSUB(NVMAX,NVOR,AICN,IAPIV,GAM_Q(1,IQ)) 100 CONTINUE C RETURN END ! GDCALC SUBROUTINE MUNGEA C C...PURPOSE To remove hidden vortex equations in AIC matrix C C...OUTPUT A(.,.) AIC matrix with affected rows replaced with 1 on diagonal C C INCLUDE 'AVL.INC' C DO 30 J = 1, NSTRIP IF (.NOT. LSTRIPOFF(J)) GO TO 30 I1 = IJFRST(J) DO 20 K = 1, NVSTRP(J) II = I1+K-1 DO 10 I = 1, NVOR AICN(II,I) = 0.0 10 CONTINUE AICN(II,II) = 1.0 20 CONTINUE 30 CONTINUE C RETURN END SUBROUTINE MUNGEB(B) C C...PURPOSE To remove hidden vortex equations in RHS's C C...OUTPUT B(.) RHS vector with affected rows replaced with 0 C INCLUDE 'AVL.INC' REAL B(NVMAX) C DO 30 J = 1, NSTRIP IF (.NOT. LSTRIPOFF(J)) GO TO 30 I1 = IJFRST(J) DO 20 K = 1, NVSTRP(J) II = I1+K-1 B(II) = 0. 20 CONTINUE 30 CONTINUE C RETURN END SUBROUTINE GAMSUM INCLUDE 'AVL.INC' C-------------------------------------------------- C Sums AIC components to get GAM, SRC, DBL C-------------------------------------------------- C C---- Set vortex strengths DO I = 1, NVOR DO IU = 1, 6 GAM_U(I,IU) = GAM_U_0(I,IU) DO N = 1, NCONTROL GAM_U(I,IU) = GAM_U(I,IU) + GAM_U_D(I,IU,N)*DELCON(N) ENDDO DO N = 1, NDESIGN GAM_U(I,IU) = GAM_U(I,IU) + GAM_U_G(I,IU,N)*DELDES(N) ENDDO ENDDO DO N = 1, NCONTROL GAM_D(I,N) = GAM_U_D(I,1,N)*VINF(1) & + GAM_U_D(I,2,N)*VINF(2) & + GAM_U_D(I,3,N)*VINF(3) & + GAM_U_D(I,4,N)*WROT(1) & + GAM_U_D(I,5,N)*WROT(2) & + GAM_U_D(I,6,N)*WROT(3) ENDDO DO N = 1, NDESIGN GAM_G(I,N) = GAM_U_G(I,1,N)*VINF(1) & + GAM_U_G(I,2,N)*VINF(2) & + GAM_U_G(I,3,N)*VINF(3) & + GAM_U_G(I,4,N)*WROT(1) & + GAM_U_G(I,5,N)*WROT(2) & + GAM_U_G(I,6,N)*WROT(3) ENDDO GAM(I) = GAM_U(I,1)*VINF(1) & + GAM_U(I,2)*VINF(2) & + GAM_U(I,3)*VINF(3) & + GAM_U(I,4)*WROT(1) & + GAM_U(I,5)*WROT(2) & + GAM_U(I,6)*WROT(3) c DO N = 1, NCONTROL c GAM(I) = GAM(I) + GAM_D(I,N)*DELCON(N) c ENDDO c DO N = 1, NDESIGN c GAM(I) = GAM(I) + GAM_G(I,N)*DELDES(N) c ENDDO END DO C C---- Set source and doublet strengths DO L = 1, NLNODE SRC(L) = SRC_U(L,1)*VINF(1) & + SRC_U(L,2)*VINF(2) & + SRC_U(L,3)*VINF(3) & + SRC_U(L,4)*WROT(1) & + SRC_U(L,5)*WROT(2) & + SRC_U(L,6)*WROT(3) DO K = 1, 3 DBL(K,L) = DBL_U(K,L,1)*VINF(1) & + DBL_U(K,L,2)*VINF(2) & + DBL_U(K,L,3)*VINF(3) & + DBL_U(K,L,4)*WROT(1) & + DBL_U(K,L,5)*WROT(2) & + DBL_U(K,L,6)*WROT(3) ENDDO ENDDO C RETURN END ! GAMSUM SUBROUTINE VELSUM INCLUDE 'AVL.INC' C-------------------------------------------------- C Sums AIC components to get WC, WV C-------------------------------------------------- C DO I = 1, NVOR DO K = 1, 3 WC(K,I) = WCSRD_U(K,I,1)*VINF(1) & + WCSRD_U(K,I,2)*VINF(2) & + WCSRD_U(K,I,3)*VINF(3) & + WCSRD_U(K,I,4)*WROT(1) & + WCSRD_U(K,I,5)*WROT(2) & + WCSRD_U(K,I,6)*WROT(3) WV(K,I) = WVSRD_U(K,I,1)*VINF(1) & + WVSRD_U(K,I,2)*VINF(2) & + WVSRD_U(K,I,3)*VINF(3) & + WVSRD_U(K,I,4)*WROT(1) & + WVSRD_U(K,I,5)*WROT(2) & + WVSRD_U(K,I,6)*WROT(3) DO J = 1, NVOR WC(K,I) = WC(K,I) + WC_GAM(K,I,J)*GAM(J) WV(K,I) = WV(K,I) + WV_GAM(K,I,J)*GAM(J) ENDDO C DO N = 1, NUMAX WC_U(K,I,N) = WCSRD_U(K,I,N) WV_U(K,I,N) = WVSRD_U(K,I,N) DO J = 1, NVOR WC_U(K,I,N) = WC_U(K,I,N) + WC_GAM(K,I,J)*GAM_U(J,N) WV_U(K,I,N) = WV_U(K,I,N) + WV_GAM(K,I,J)*GAM_U(J,N) ENDDO ENDDO C ENDDO ENDDO C RETURN END ! VELSUM SUBROUTINE WSENS INCLUDE 'AVL.INC' C--------------------------------------------------- C Computes induced-velocity sensitivities C to control and design changes C--------------------------------------------------- C DO I = 1, NVOR DO K = 1, 3 DO N = 1, NCONTROL WC_D(K,I,N) = 0. WV_D(K,I,N) = 0. DO J = 1, NVOR WC_D(K,I,N) = WC_D(K,I,N) + WC_GAM(K,I,J)*GAM_D(J,N) WV_D(K,I,N) = WV_D(K,I,N) + WV_GAM(K,I,J)*GAM_D(J,N) ENDDO ENDDO C DO N = 1, NDESIGN WC_G(K,I,N) = 0. WV_G(K,I,N) = 0. DO J = 1, NVOR WC_G(K,I,N) = WC_G(K,I,N) + WC_GAM(K,I,J)*GAM_G(J,N) WV_G(K,I,N) = WV_G(K,I,N) + WV_GAM(K,I,J)*GAM_G(J,N) ENDDO ENDDO ENDDO ENDDO C RETURN END ! WSENS

third_party/avl/src/asetup.f

PROGRAM test_message use mpi use ghex_mod use ghex_message_mod implicit none integer(8) :: msg_size = 16, i type(ghex_message) :: msg integer(1), dimension(:), pointer :: msg_data msg = ghex_message_new(msg_size, GhexAllocatorHost) msg_data => ghex_message_data(msg) msg_data(1:msg_size) = (/(i, i=1,msg_size,1)/) print *, "values: ", msg_data ! cleanup call ghex_free(msg) END PROGRAM test_message

tests/bindings/test_f_message.f90

MODULE bc_module use rgrid_module, only: Ngrid,Igrid use parallel_module use bc_mol_module, only: init_bcset_mol use bc_variables, only: fdinfo_send,fdinfo_recv,n_neighbor,www,Md & ,sbuf,rbuf,TYPE_MAIN,zero use watch_module use bcset_1_module, only: bcset_1 use bcset_3_module, only: bcset_3 implicit none PRIVATE PUBLIC :: init_bcset PUBLIC :: bcset PUBLIC :: bcset_1 PUBLIC :: bcset_3 PUBLIC :: n_neighbor, fdinfo_send, fdinfo_recv PUBLIC :: www CONTAINS SUBROUTINE bcset(ib1,ib2,ndepth,idir) implicit none integer,intent(IN) :: ib1,ib2,ndepth,idir integer :: a1,a2,a3,b1,b2,b3,nb,ns,ms,mt integer :: m,n,ndata,i1,i2,i3,ib,ierr integer :: c1,c2,c3,d1,d2,d3,irank,nreq,itags,itagr,ireq(36) integer :: i,j,l integer :: istatus(mpi_status_size,123) a1=Igrid(1,1) b1=Igrid(2,1) a2=Igrid(1,2) b2=Igrid(2,2) a3=Igrid(1,3) b3=Igrid(2,3) nb=ib2-ib1+1 nreq=0 !(1) [sender][2]-->[1][receiver] if ( idir==0 .or. idir==1 .or. idir==2 ) then do n=1,n_neighbor(1) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,1)*nb else ndata = fdinfo_recv(9,n,1)*nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,1) itagr = 10 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,1),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(2) if ( ndepth==1 ) then c1=b1 d1=b1 j=fdinfo_send(10,n,2)*nb else c1=fdinfo_send(1,n,2) d1=fdinfo_send(2,n,2) j=fdinfo_send(9,n,2)*nb end if c2=fdinfo_send(3,n,2) ; d2=fdinfo_send(4,n,2) c3=fdinfo_send(5,n,2) ; d3=fdinfo_send(6,n,2) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,2)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,2) itags = 10 nreq = nreq + 1 call mpi_isend(sbuf(1,n,2),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(3) [sender][4]-->[3][receiver] if ( idir==0 .or. idir==3 .or. idir==4 ) then do n=1,n_neighbor(3) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,3)*nb else ndata = fdinfo_recv(9,n,3)*nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,3) itagr = 30 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,3),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(4) if ( ndepth==1 ) then c2=b2 d2=b2 j=fdinfo_send(10,n,4)*nb else c2=fdinfo_send(3,n,4) d2=fdinfo_send(4,n,4) j=fdinfo_send(9,n,4)*nb end if c1=fdinfo_send(1,n,4) ; d1=fdinfo_send(2,n,4) c3=fdinfo_send(5,n,4) ; d3=fdinfo_send(6,n,4) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,4)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,4) itags = 30 nreq = nreq + 1 call mpi_isend(sbuf(1,n,4),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(5) [sender][6]-->[5][receiver] if ( idir==0 .or. idir==5 .or. idir==6 ) then do n=1,n_neighbor(5) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,5)*nb else ndata = fdinfo_recv(9,n,5)*nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,5) itagr = 50 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,5),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(6) if ( ndepth==1 ) then c3=b3 d3=b3 j=fdinfo_send(10,n,6)*nb else c3=fdinfo_send(5,n,6) d3=fdinfo_send(6,n,6) j=fdinfo_send(9,n,6)*nb end if c1=fdinfo_send(1,n,6) ; d1=fdinfo_send(2,n,6) c2=fdinfo_send(3,n,6) ; d2=fdinfo_send(4,n,6) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,6)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,6) itags = 50 nreq = nreq + 1 call mpi_isend(sbuf(1,n,6),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(2) [receiver][2]<--[1][sender] if ( idir==0 .or. idir==1 .or. idir==2 ) then do n=1,n_neighbor(2) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,2)*nb else ndata = fdinfo_recv(9,n,2)*nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,2) itagr = 20 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,2),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(1) if ( ndepth==1 ) then c1=a1 d1=a1 j=fdinfo_send(10,n,1)*nb else c1=fdinfo_send(1,n,1) d1=fdinfo_send(2,n,1) j=fdinfo_send(9,n,1)*nb end if c2=fdinfo_send(3,n,1) ; d2=fdinfo_send(4,n,1) c3=fdinfo_send(5,n,1) ; d3=fdinfo_send(6,n,1) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,1)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,1) itags = 20 nreq = nreq + 1 call mpi_isend(sbuf(1,n,1),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(4) [receiver][4]<--[3][sender] if ( idir==0 .or. idir==3 .or. idir==4 ) then do n=1,n_neighbor(4) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,4)*nb else ndata = fdinfo_recv(9,n,4)*nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,4) itagr = 40 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,4),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(3) if ( ndepth==1 ) then c2=a2 d2=a2 j=fdinfo_send(10,n,3)*nb else c2=fdinfo_send(3,n,3) d2=fdinfo_send(4,n,3) j=fdinfo_send(9,n,3)*nb end if c1=fdinfo_send(1,n,3) ; d1=fdinfo_send(2,n,3) c3=fdinfo_send(5,n,3) ; d3=fdinfo_send(6,n,3) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,3)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,3) itags = 40 nreq = nreq + 1 call mpi_isend(sbuf(1,n,3),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if ! call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 !(6) [receiver][6]<--[5][sender] if ( idir==0 .or. idir==5 .or. idir==6 ) then do n=1,n_neighbor(6) if ( ndepth==1 ) then ndata = fdinfo_recv(10,n,6)*nb else ndata = fdinfo_recv(9,n,6)*nb end if if ( ndata<1 ) cycle irank = fdinfo_recv(8,n,6) itagr = 60 nreq = nreq + 1 call mpi_irecv(rbuf(1,n,6),ndata,TYPE_MAIN,irank,itagr & ,comm_grid,ireq(nreq),ierr) end do do n=1,n_neighbor(5) if ( ndepth==1 ) then c3=a3 d3=a3 j=fdinfo_send(10,n,5)*nb else c3=fdinfo_send(5,n,5) d3=fdinfo_send(6,n,5) j=fdinfo_send(9,n,5)*nb end if c1=fdinfo_send(1,n,5) ; d1=fdinfo_send(2,n,5) c2=fdinfo_send(3,n,5) ; d2=fdinfo_send(4,n,5) if ( j<1 ) cycle ndata=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 ndata=ndata+1 sbuf(ndata,n,5)=www(i1,i2,i3,ib) end do end do end do end do if ( ndata/=j ) stop irank = fdinfo_send(7,n,5) itags = 60 nreq = nreq + 1 call mpi_isend(sbuf(1,n,5),ndata,TYPE_MAIN,irank,itags & ,comm_grid,ireq(nreq),ierr) end do end if call mpi_waitall(nreq,ireq,istatus,ierr) ; nreq=0 do m=1,6 do n=1,n_neighbor(m) c1=fdinfo_recv(1,n,m) d1=fdinfo_recv(2,n,m) c2=fdinfo_recv(3,n,m) d2=fdinfo_recv(4,n,m) c3=fdinfo_recv(5,n,m) d3=fdinfo_recv(6,n,m) if ( Md>ndepth .and. ndepth==1 ) then if ( fdinfo_recv(10,n,m)<1 ) cycle select case(m) case(1) c1=a1-1 d1=c1 case(2) c1=b1+1 d1=c1 case(3) c2=a2-1 d2=c2 case(4) c2=b2+1 d2=c2 case(5) c3=a3-1 d3=c3 case(6) c3=b3+1 d3=c3 end select else if ( fdinfo_recv(9,n,m)<1 ) cycle end if i=0 do ib=ib1,ib2 do i3=c3,d3 do i2=c2,d2 do i1=c1,d1 i=i+1 www(i1,i2,i3,ib)=rbuf(i,n,m) end do end do end do end do end do end do return END SUBROUTINE bcset SUBROUTINE init_bcset( Md_in, SYStype ) implicit none integer,intent(IN) :: Md_in, SYStype Md = Md_in select case( SYStype ) case default call init_bcset_sol case( 1 ) call init_bcset_mol(Md,Ngrid(1),np_grid,myrank_g,comm_grid,pinfo_grid) end select call allocate_bcset END SUBROUTINE init_bcset SUBROUTINE init_bcset_sol implicit none integer :: a1,a2,a3,b1,b2,b3,a1b,b1b,a2b,b2b,a3b,b3b integer,allocatable :: map_grid_2_pinfo(:,:,:,:) integer,allocatable :: ireq(:) integer :: i,i1,i2,i3,m,n,j,j1,j2,j3,nc,m1,m2,m3 integer :: jrank,ip,fp,ns,irank,nreq,itags,itagr,ierr integer :: ML1,ML2,ML3 integer :: istatus(MPI_STATUS_SIZE,123) call write_border( 80, " init_bcset_sol(start)" ) ML1 = Ngrid(1) ML2 = Ngrid(2) ML3 = Ngrid(3) a1b=Igrid(1,1) ; b1b=Igrid(2,1) a2b=Igrid(1,2) ; b2b=Igrid(2,2) a3b=Igrid(1,3) ; b3b=Igrid(2,3) a1=-Md ; b1=Ngrid(1)-1+Md a2=-Md ; b2=Ngrid(2)-1+Md a3=-Md ; b3=Ngrid(3)-1+Md allocate( map_grid_2_pinfo(a1:b1,a2:b2,a3:b3,2) ) map_grid_2_pinfo(:,:,:,:)=0 do i=0,np_grid-1 i1=pinfo_grid(1,i) m1=pinfo_grid(2,i) i2=pinfo_grid(3,i) m2=pinfo_grid(4,i) i3=pinfo_grid(5,i) m3=pinfo_grid(6,i) do j3=i3,i3+m3-1 do j2=i2,i2+m2-1 do j1=i1,i1+m1-1 map_grid_2_pinfo(j1,j2,j3,1)=i map_grid_2_pinfo(j1,j2,j3,2)=pinfo_grid(7,i) end do end do end do end do do i3=a3,b3 j3=mod(i3+ML3,ML3) do i2=a2,b2 j2=mod(i2+ML2,ML2) do i1=a1,b1 j1=mod(i1+ML1,ML1) map_grid_2_pinfo(i1,i2,i3,1)=map_grid_2_pinfo(j1,j2,j3,1) map_grid_2_pinfo(i1,i2,i3,2)=map_grid_2_pinfo(j1,j2,j3,2) end do end do end do do i=2,6,2 n=minval( pinfo_grid(i,0:np_grid-1) ) do nc=1,Md if ( nc*n >= Md ) exit end do if ( nc<1 .or. Md<nc ) stop n_neighbor(i-1)=nc n_neighbor(i) =nc end do n=maxval(n_neighbor(:)) allocate( fdinfo_send(10,n,6) ) ; fdinfo_send=0 allocate( fdinfo_recv(10,n,6) ) ; fdinfo_recv=0 fdinfo_send(7,:,:)=MPI_PROC_NULL fdinfo_recv(8,:,:)=MPI_PROC_NULL jrank=map_grid_2_pinfo(a1b-1,a2b,a3b,1) ip=a1b-1 fp=ip nc=1 ns=(b2b-a2b+1)*(b3b-a3b+1) fdinfo_recv(1,nc,1)=ip fdinfo_recv(2,nc,1)=fp fdinfo_recv(3,nc,1)=a2b fdinfo_recv(4,nc,1)=b2b fdinfo_recv(5,nc,1)=a3b fdinfo_recv(6,nc,1)=b3b fdinfo_recv(7,nc,1)=myrank_g fdinfo_recv(8,nc,1)=jrank fdinfo_recv(9,nc,1)=ns fdinfo_recv(10,nc,1)=ns do i=a1b-2,a1b-Md,-1 irank=map_grid_2_pinfo(i,a2b,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 fp=i end if fdinfo_recv(1,nc,1)=i fdinfo_recv(2,nc,1)=fp fdinfo_recv(3,nc,1)=a2b fdinfo_recv(4,nc,1)=b2b fdinfo_recv(5,nc,1)=a3b fdinfo_recv(6,nc,1)=b3b fdinfo_recv(7,nc,1)=myrank_g fdinfo_recv(8,nc,1)=jrank fdinfo_recv(9,nc,1)=(fp-i+1)*ns end do jrank=map_grid_2_pinfo(b1b+1,a2b,a3b,1) ip=b1b+1 fp=ip nc=1 ns=(b2b-a2b+1)*(b3b-a3b+1) fdinfo_recv(1,nc,2)=ip fdinfo_recv(2,nc,2)=fp fdinfo_recv(3,nc,2)=a2b fdinfo_recv(4,nc,2)=b2b fdinfo_recv(5,nc,2)=a3b fdinfo_recv(6,nc,2)=b3b fdinfo_recv(7,nc,2)=myrank_g fdinfo_recv(8,nc,2)=jrank fdinfo_recv(9,nc,2)=ns fdinfo_recv(10,nc,2)=ns do i=b1b+1,b1b+Md irank=map_grid_2_pinfo(i,a2b,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 ip=i end if fdinfo_recv(1,nc,2)=ip fdinfo_recv(2,nc,2)=i fdinfo_recv(3,nc,2)=a2b fdinfo_recv(4,nc,2)=b2b fdinfo_recv(5,nc,2)=a3b fdinfo_recv(6,nc,2)=b3b fdinfo_recv(7,nc,2)=myrank_g fdinfo_recv(8,nc,2)=jrank fdinfo_recv(9,nc,2)=(i-ip+1)*ns end do jrank=map_grid_2_pinfo(a1b,a2b-1,a3b,1) ip=a2b-1 fp=ip nc=1 ns=(b1b-a1b+1)*(b3b-a3b+1) fdinfo_recv(1,nc,3)=a1b fdinfo_recv(2,nc,3)=b1b fdinfo_recv(3,nc,3)=ip fdinfo_recv(4,nc,3)=fp fdinfo_recv(5,nc,3)=a3b fdinfo_recv(6,nc,3)=b3b fdinfo_recv(7,nc,3)=myrank_g fdinfo_recv(8,nc,3)=jrank fdinfo_recv(9,nc,3)=ns fdinfo_recv(10,nc,3)=ns do i=a2b-2,a2b-Md,-1 irank=map_grid_2_pinfo(a1b,i,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 fp=i end if fdinfo_recv(1,nc,3)=a1b fdinfo_recv(2,nc,3)=b1b fdinfo_recv(3,nc,3)=i fdinfo_recv(4,nc,3)=fp fdinfo_recv(5,nc,3)=a3b fdinfo_recv(6,nc,3)=b3b fdinfo_recv(7,nc,3)=myrank_g fdinfo_recv(8,nc,3)=jrank fdinfo_recv(9,nc,3)=(fp-i+1)*ns end do jrank=map_grid_2_pinfo(a1b,b2b+1,a3b,1) ip=b2b+1 fp=ip nc=1 ns=(b1b-a1b+1)*(b3b-a3b+1) fdinfo_recv(1,nc,4)=a1b fdinfo_recv(2,nc,4)=b1b fdinfo_recv(3,nc,4)=ip fdinfo_recv(4,nc,4)=fp fdinfo_recv(5,nc,4)=a3b fdinfo_recv(6,nc,4)=b3b fdinfo_recv(7,nc,4)=myrank_g fdinfo_recv(8,nc,4)=jrank fdinfo_recv(9,nc,4)=ns fdinfo_recv(10,nc,4)=ns do i=b2b+1,b2b+Md irank=map_grid_2_pinfo(a1b,i,a3b,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 ip=i end if fdinfo_recv(1,nc,4)=a1b fdinfo_recv(2,nc,4)=b1b fdinfo_recv(3,nc,4)=ip fdinfo_recv(4,nc,4)=i fdinfo_recv(5,nc,4)=a3b fdinfo_recv(6,nc,4)=b3b fdinfo_recv(7,nc,4)=myrank_g fdinfo_recv(8,nc,4)=jrank fdinfo_recv(9,nc,4)=(i-ip+1)*ns end do jrank=map_grid_2_pinfo(a1b,a2b,a3b-1,1) ip=a3b-1 fp=ip nc=1 ns=(b2b-a2b+1)*(b1b-a1b+1) fdinfo_recv(1,nc,5)=a1b fdinfo_recv(2,nc,5)=b1b fdinfo_recv(3,nc,5)=a2b fdinfo_recv(4,nc,5)=b2b fdinfo_recv(5,nc,5)=ip fdinfo_recv(6,nc,5)=fp fdinfo_recv(7,nc,5)=myrank_g fdinfo_recv(8,nc,5)=jrank fdinfo_recv(9,nc,5)=ns fdinfo_recv(10,nc,5)=ns do i=a3b-2,a3b-Md,-1 irank=map_grid_2_pinfo(a1b,a2b,i,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 fp=i end if fdinfo_recv(1,nc,5)=a1b fdinfo_recv(2,nc,5)=b1b fdinfo_recv(3,nc,5)=a2b fdinfo_recv(4,nc,5)=b2b fdinfo_recv(5,nc,5)=i fdinfo_recv(6,nc,5)=fp fdinfo_recv(7,nc,5)=myrank_g fdinfo_recv(8,nc,5)=jrank fdinfo_recv(9,nc,5)=(fp-i+1)*ns end do jrank=map_grid_2_pinfo(a1b,a2b,b3b+1,1) ip=b3b+1 fp=ip nc=1 ns=(b2b-a2b+1)*(b1b-a1b+1) fdinfo_recv(1,nc,6)=a1b fdinfo_recv(2,nc,6)=b1b fdinfo_recv(3,nc,6)=a2b fdinfo_recv(4,nc,6)=b2b fdinfo_recv(5,nc,6)=ip fdinfo_recv(6,nc,6)=fp fdinfo_recv(7,nc,6)=myrank_g fdinfo_recv(8,nc,6)=jrank fdinfo_recv(9,nc,6)=ns fdinfo_recv(10,nc,6)=ns do i=b3b+1,b3b+Md irank=map_grid_2_pinfo(a1b,a2b,i,1) if ( irank/=jrank ) then jrank=irank nc=nc+1 ip=i end if fdinfo_recv(1,nc,6)=a1b fdinfo_recv(2,nc,6)=b1b fdinfo_recv(3,nc,6)=a2b fdinfo_recv(4,nc,6)=b2b fdinfo_recv(5,nc,6)=ip fdinfo_recv(6,nc,6)=i fdinfo_recv(7,nc,6)=myrank_g fdinfo_recv(8,nc,6)=jrank fdinfo_recv(9,nc,6)=(i-ip+1)*ns end do deallocate( map_grid_2_pinfo ) n=maxval(n_neighbor)*6*2 allocate( ireq(n) ) ; ireq(:)=0 nreq=0 do j=1,6 do i=1,n_neighbor(j) irank=fdinfo_recv(8,i,j) select case(j) case(1,3,5) itags=10*(j+1)+i itagr=10*j+i case(2,4,6) itags=10*(j-1)+i itagr=10*j+i end select nreq=nreq+1 call mpi_irecv(fdinfo_send(1,i,j),10,mpi_integer,irank & ,itagr,comm_grid,ireq(nreq),ierr) nreq=nreq+1 call mpi_isend(fdinfo_recv(1,i,j),10,mpi_integer,irank & ,itags,comm_grid,ireq(nreq),ierr) end do end do call mpi_waitall(nreq,ireq,istatus,ierr) deallocate( ireq ) do i=1,6 do n=1,n_neighbor(i) select case(i) case(1,2) fdinfo_send(1,n,i)=mod(fdinfo_send(1,n,i)+ML1,ML1) fdinfo_send(2,n,i)=mod(fdinfo_send(2,n,i)+ML1,ML1) case(3,4) fdinfo_send(3,n,i)=mod(fdinfo_send(3,n,i)+ML2,ML2) fdinfo_send(4,n,i)=mod(fdinfo_send(4,n,i)+ML2,ML2) case(5,6) fdinfo_send(5,n,i)=mod(fdinfo_send(5,n,i)+ML3,ML3) fdinfo_send(6,n,i)=mod(fdinfo_send(6,n,i)+ML3,ML3) end select end do end do call write_border( 80, " init_bcset_sol(end)" ) END SUBROUTINE init_bcset_sol SUBROUTINE allocate_bcset implicit none integer :: a1,a2,a3,b1,b2,b3 a1=Igrid(1,1)-Md ; a2=Igrid(1,2)-Md ; a3=Igrid(1,3)-Md b1=Igrid(2,1)+Md ; b2=Igrid(2,2)+Md ; b3=Igrid(2,3)+Md if ( allocated(www) ) deallocate(www) allocate( www(a1:b1,a2:b2,a3:b3,MB_d) ) www(:,:,:,:)=zero a1=maxval( n_neighbor(1:6) ) a2=maxval( fdinfo_send(9,1:a1,1:6) )*MB_d a3=maxval( fdinfo_recv(9,1:a1,1:6) )*MB_d if ( allocated(sbuf) ) deallocate(sbuf) if ( allocated(rbuf) ) deallocate(rbuf) allocate( sbuf(a2,a1,6) ) allocate( rbuf(a3,a1,6) ) sbuf(:,:,:)=zero rbuf(:,:,:)=zero END SUBROUTINE allocate_bcset END MODULE bc_module

src/bc/bc_module.f90

subroutine plots_stop_cfmt(p,wt,wt2) c--- routine to provide a plotting interface that produces the plots c--- for both single top processes (2->2 and 2->3) c--- of Campbell, Frederix, Maltoni and Tramontano implicit none include 'constants.f' include 'jetlabel.f' include 'nplot.f' include 'process.f' include 'first.f' integer i,n,nplotmax,jet(2),jetswap,ibbar,inotb,ilight1,ilight2 double precision p(mxpart,4),wt,wt2,getet, . pttop,etatop,ytop,bwgt, . pt,etarap,yrap,ptthree,etarapthree,yrapthree, . wtbbar,wtnotb,wtlight1,wtlight2, . wtbbar2,wtnotb2,wtlight12,wtlight22, . ptmin,ptmax,ptbin,rapmin,rapmax,rapbin character*4 tag logical jetmerge common/jetmerge/jetmerge common/btagging/bwgt common/nplotmax/nplotmax !$omp threadprivate(/jetmerge/) ccccc!$omp threadprivate(/nplotmax/) c--- on the first call, initialize histograms if (first) then tag='book' pttop=-1d0 etatop=1d3 ytop=1d3 ibbar=6 inotb=7 ilight1=6 ilight2=7 goto 99 else tag='plot' endif c--- check that this routine is being used for one of the envisaged c--- processes and, if so, initialize variables accordingly if (case .eq. 'bq_tpq') then if (jets .gt. 0) then do i=1,jets jet(i)=5+i ! jets start with parton 6 when removebr=.true. enddo pttop=ptthree(3,4,5,p) etatop=etarapthree(3,4,5,p) ytop=yrapthree(3,4,5,p) endif elseif (case .eq. 'qg_tbq') then if (jets .gt. 0) then do i=1,jets jet(i)=4+i ! jets start with parton 5 enddo pttop=pt(3,p) etatop=etarap(3,p) ytop=yrap(3,p) endif else write(6,*) 'This plotting routine is not suitable for' write(6,*) 'the process that you are calculating.' stop endif c--- there are at most two jets; reorder them according to pt if two if (jets .eq. 2) then if (pt(jet(2),p) .gt. pt(jet(1),p)) then jetswap=jet(1) jet(1)=jet(2) jet(2)=jetswap endif endif c--- initialize all variabels to zero ibbar=0 inotb=0 ilight1=0 ilight2=0 c--- Extract index to b~ (b for t~) in the 2->2 process c--- Events should be plotted with weight = wt*bwgt instead of just wt c--- (adapted from original code in nplotter.f by Z. Sullivan) if (case .eq. 'bq_tpq') then c--- 1) Ascertain the identity of the jets if (jets .gt. 0) then c--- There are 2 cases: c--- If no merging, then only if jetlabel(i)=='pp' is it the b~. do i=1,jets if (jetlabel(jet(i)-5).eq.'pp') then ibbar=jet(i) elseif (jetlabel(jet(i)-5).eq.'qj') then inotb=jet(i) endif enddo c--- If merging occurred, then it matters whether the merged c--- jet was already a bq or not. if (jetmerge) then ibbar=jet(1) ! b~ was merged into jet(1) endif endif c--- 2) Assign weights for histogramming c--- there are three cases if (jets .eq. 1) then if (jetlabel(1) .eq. 'qj') then c--- 1) only one jet, that is definitely not a b c--- jetlabel = (qj) ibbar=0 c inotb already set above wtnotb=wt wtnotb2=wt2 elseif (jetlabel(1) .eq. 'pp') then c--- 2) only one jet, that could be a b c--- jetlabel = (pp) c ibbar already set above inotb=ibbar wtbbar=wt*bwgt wtnotb=wt*(1d0-bwgt) wtbbar2=wt2*bwgt**2 wtnotb2=wt2*(1d0-bwgt)**2 endif c--- 3) two jets, one of which could be a b c--- jetlabel = (qj,pp) OR (pp,qj) elseif (jets .eq. 2) then c ibbar already set above c inotb already set above wtbbar=wt*bwgt wtnotb=wt*bwgt wtbbar2=wt2*bwgt**2 wtnotb2=wt2*bwgt**2 ilight1=jet(1) ! they are ordered according to pt ilight2=jet(2) ! they are ordered according to pt wtlight1=wt*(1d0-bwgt) wtlight2=wtlight1 wtlight12=wt2*(1d0-bwgt)**2 wtlight22=wtlight12 elseif (jets .eq. 0) then c--- nothing to set: all variables=0, only occurs when notag=1 continue else write(6,*) 'Error: there should be 1 or 2 jets, instead ',jets stop endif endif c--- Simpler manipulations for the 2->3 process if (case .eq. 'qg_tbq') then ibbar=4 wtbbar=wt wtbbar2=wt2 if (jets .gt. 0) then ilight1=jet(1) wtlight1=wt wtlight12=wt2 endif if (jets .gt. 1) then ilight2=jet(2) wtlight2=wt wtlight22=wt2 endif c--- inotb should remain equal to zero endif 99 continue n=1 c--- fill plots c--- available veriables are c--- pttop,eta,ytop: pt, pseudo-rapidity and rapidity of the top quark call bookplot(n,tag,'pt(top) ',pttop,wt,wt2,0d0,200d0,5d0,'log') n=n+1 call bookplot(n,tag,'eta(top)',etatop,wt,wt2,-8d0,8d0,0.5d0,'lin') n=n+1 call bookplot(n,tag,'y(top) ',ytop,wt,wt2,-8d0,8d0,0.5d0,'lin') n=n+1 c--- more complicated procedure for these plots, due to 2->2 process c--- pt and rapidity of the b-quark and other jets c--- Note that the order is important (due to histogram finalizing): c--- all plots for jet 1, all for bottom quark, all for jet 2 c--- set the ranges and bin sizes here ptmin=0d0 ptmax=200d0 ptbin=2d0 rapmin=-5d0 rapmax=+5d0 rapbin=0.2d0 c--- 1) leading jet that isn't a b c--- first account for events with only one non b jet (always occurs) c--- (always occurs, except if notag=1) c--- [pt] if (inotb .ne. 0) then call bookplot(n,tag,'pt(jet 1)', . pt(inotb,p),wtnotb,wtnotb2,ptmin,ptmax,ptbin,'log') endif c--- then account for events with two non b jets (only if ilight1>0) if (ilight1 .ne. 0) then call bookplot(n,tag,'pt(jet 1)', . pt(ilight1,p),wtlight1,wtlight12,ptmin,ptmax,ptbin,'log') endif n=n+1 c--- [rapidity] if (inotb .ne. 0) then call bookplot(n,tag,'eta(jet 1)', . etarap(inotb,p),wtnotb,wtnotb2,rapmin,rapmax,rapbin,'lin') endif c--- then account for events with two non b jets (only if ilight1>0) if (ilight1 .ne. 0) then call bookplot(n,tag,'eta(jet 1)', . etarap(ilight1,p),wtlight1,wtlight12,rapmin,rapmax,rapbin,'lin') endif n=n+1 c--- 2) b jet (only if ibbar>0) c--- [pt] if (ibbar .ne. 0) then call bookplot(n,tag,'pt(bottom)', . pt(ibbar,p),wtbbar,wtbbar2,ptmin,ptmax,ptbin,'log') endif n=n+1 c--- [pt] with |rapidity| < 2.8 (plot for CDF) if (ibbar .ne. 0) then if ((abs(etarap(ibbar,p)) .lt. 2.8d0).or.(tag .eq. 'book')) then call bookplot(n,tag,'pt(bottom) with |eta(bottom)| < 2.8', . pt(ibbar,p),wtbbar,wtbbar2,ptmin,ptmax,ptbin,'log') endif endif n=n+1 c--- [rapidity] if (ibbar .ne. 0) then call bookplot(n,tag,'eta(bottom)', . etarap(ibbar,p),wtbbar,wtbbar2,rapmin,rapmax,rapbin,'lin') endif n=n+1 c--- [rapidity] < 2.8 and pt > 20 GeV (plot for acceptance in CDF) if (ibbar .ne. 0) then if ((pt(ibbar,p) .gt. 20d0).or.(tag .eq. 'book')) then call bookplot(n,tag,'eta(bottom) with pt(bottom)>20 GeV', . etarap(ibbar,p),wtbbar,wtbbar2,-2.8d0,2.801d0,rapbin,'lin') endif endif n=n+1 c--- [rapidity] < 2.8 and pt > 20 GeV (plot for acceptance in CDF) if (ibbar .ne. 0) then if ((getet(p(ibbar,4),p(ibbar,1),p(ibbar,2),p(ibbar,3)).gt.20d0) . .or.(tag .eq. 'book')) then call bookplot(n,tag,'eta(bottom) with Et(bottom)>20 GeV', . etarap(ibbar,p),wtbbar,wtbbar2,-2.8d0,2.801d0,rapbin,'lin') endif endif n=n+1 c--- 3) subleading jet that isn't a b (only if ilight2>0) c--- [pt] if (ilight2 .ne. 0) then call bookplot(n,tag,'pt(jet 2)', . pt(ilight2,p),wtlight2,wtlight22,ptmin,ptmax,ptbin,'log') endif n=n+1 c--- [rapidity] if (ilight2 .ne. 0) then call bookplot(n,tag,'eta(jet 2)', . etarap(ilight2,p),wtlight2,wtlight22,rapmin,rapmax,rapbin,'lin') endif n=n+1 c--- copied from nplotter.f n=n-1 if (n .gt. maxhisto) then write(6,*) 'WARNING - TOO MANY HISTOGRAMS!' write(6,*) n,' > ',maxhisto,', which is the built-in maximum.' write(6,*) 'To use more histograms, change the value of the' write(6,*) 'constant MAXHISTO in src/Inc/nplot.f then do:' write(6,*) write(6,*) ' make clean; make to recompile from scratch.' write(6,*) stop endif c--- set the maximum number of plots, on the first call if (first) then first=.false. nplotmax=n endif return end

MCFM-JHUGen/src/User/plots_stop_cfmt.f

subroutine interp2(x,y,v,n1,n2,a,b,NZ) implicit none integer*4::n1,n2; integer*4,dimension(1)::sx,sy; real*8(n2,n1)::v; real*8(n1):: x; real*8(n2):: y; real*8(1,1):: NZ1,v1,v2,v3,v4,v5; real*8(1):: x1,x2,x3,y1,y2,y3 real*8::a,b,NZ sx=minloc(abs(x-a));sy=minloc(abs(y-b)); y1=y(sy);x1=x(sx); y2=y(sy-1);x2=x(sx-1);y3=y(sy+1);x3=x(sx+1); v1=v(sy,sx);v2=v(sy,sx-1);v3=v(sy-1,sx);v4=v(sy+1,sx); v5=v(sy,sx+1); if((y1(1)>b).AND.(x1(1)>a))then NZ1=v1(1,1)-(v1(1,1)-v2(1,1))/(x1(1)-x2(1))*(x1(1)-a)& &-(v1(1,1)-v3(1,1))/(y1(1)-y2(1))*(y1(1)-b); else if((y1(1)<=b).AND.(x1(1)>a))then NZ1=v1(1,1)-(v1(1,1)-v2(1,1))/(x1(1)-x2(1))*(x1(1)-a)& &-(v4(1,1)-v1(1,1))/(y3(1)-y1(1))*(y1(1)-b); else if(y1(1)>b.AND.x1(1)<=a)then NZ1=v1(1,1)-(v5(1,1)-v1(1,1))/(x3(1)-x1(1))*(x1(1)-a)& &-(v1(1,1)-v3(1,1))/(y1(1)-y2(1))*(y1(1)-b); else NZ1=v1(1,1)-(v5(1,1)-v1(1,1))/(x3(1)-x1(1))*(x1(1)-a)& &-(v4(1,1)-v1(1,1))/(y3(1)-y1(1))*(y1(1)-b); end if NZ=NZ1(1,1); return; end subroutine

11/mathlib/interp2.f90

! { dg-do compile } ! Checks the fix for PR33241, in which the assumed character ! length of the parameter was never filled in with that of ! the initializer. ! ! Contributed by Victor Prosolin <[email protected]> ! PROGRAM fptest IMPLICIT NONE CHARACTER (LEN=*), DIMENSION(1), PARAMETER :: var = 'a' CALL parsef (var) contains SUBROUTINE parsef (Var) IMPLICIT NONE CHARACTER (LEN=*), DIMENSION(:), INTENT(in) :: Var END SUBROUTINE parsef END PROGRAM fptest

validation_tests/llvm/f18/gfortran.dg/char_length_10.f90

subroutine amrex_fort_avg_nd_to_cc (lo, hi, ncomp, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & nd, ndl1, ndl2, ndl3, ndh1, ndh2, ndh3 ) bind(c) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3), ncomp integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 integer :: ndl1, ndl2, ndl3, ndh1, ndh2, ndh3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3, ncomp) real(amrex_real) :: nd(ndl1:ndh1, ndl2:ndh2, ndl3:ndh3, ncomp) ! Local variables integer :: i,j,k,n do n = 1, ncomp do k=lo(3),hi(3) do j=lo(2),hi(2) do i=lo(1),hi(1) cc(i,j,k,n) = 0.125_amrex_real * ( nd(i,j ,k ,n) + nd(i+1,j ,k ,n) & + nd(i,j+1,k ,n) + nd(i+1,j+1,k ,n) & + nd(i,j ,k+1,n) + nd(i+1,j ,k+1,n) & + nd(i,j+1,k+1,n) + nd(i+1,j+1,k+1,n) ) end do end do end do end do end subroutine amrex_fort_avg_nd_to_cc ! *************************************************************************************** ! subroutine bl_avg_eg_to_cc ! *************************************************************************************** subroutine bl_avg_eg_to_cc (lo, hi, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & Ex, Exl1, Exl2, Exl3, Exh1, Exh2, Exh3, & Ey, Eyl1, Eyl2, Eyl3, Eyh1, Eyh2, Eyh3, & Ez, Ezl1, Ezl2, Ezl3, Ezh1, Ezh2, Ezh3) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3) integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 integer :: Exl1, Exl2, Exl3, Exh1, Exh2, Exh3 integer :: Eyl1, Eyl2, Eyl3, Eyh1, Eyh2, Eyh3 integer :: Ezl1, Ezl2, Ezl3, Ezh1, Ezh2, Ezh3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3, 3) real(amrex_real) :: Ex(Exl1:Exh1, Exl2:Exh2, Exl3:Exh3) real(amrex_real) :: Ey(Eyl1:Eyh1, Eyl2:Eyh2, Eyl3:Eyh3) real(amrex_real) :: Ez(Ezl1:Ezh1, Ezl2:Ezh2, Ezl3:Ezh3) ! Local variables integer :: i,j,k do k=lo(3),hi(3) do j=lo(2),hi(2) do i=lo(1),hi(1) cc(i,j,k,1) = 0.25d0 * ( Ex(i,j,k) + Ex(i,j+1,k) + Ex(i,j,k+1) + Ex(i,j+1,k+1) ) cc(i,j,k,2) = 0.25d0 * ( Ey(i,j,k) + Ey(i+1,j,k) + Ey(i,j,k+1) + Ey(i+1,j,k+1) ) cc(i,j,k,3) = 0.25d0 * ( Ez(i,j,k) + Ez(i+1,j,k) + Ez(i,j+1,k) + Ez(i+1,j+1,k) ) enddo enddo enddo end subroutine bl_avg_eg_to_cc ! *************************************************************************************** ! subroutine bl_avg_fc_to_cc ! *************************************************************************************** subroutine bl_avg_fc_to_cc (lo, hi, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & fx, fxl1, fxl2, fxl3, fxh1, fxh2, fxh3, & fy, fyl1, fyl2, fyl3, fyh1, fyh2, fyh3, & fz, fzl1, fzl2, fzl3, fzh1, fzh2, fzh3, & dx, problo, coord_type) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3), coord_type integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 integer :: fxl1, fxl2, fxl3, fxh1, fxh2, fxh3 integer :: fyl1, fyl2, fyl3, fyh1, fyh2, fyh3 integer :: fzl1, fzl2, fzl3, fzh1, fzh2, fzh3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3, 3) real(amrex_real) :: fx(fxl1:fxh1, fxl2:fxh2, fxl3:fxh3) real(amrex_real) :: fy(fyl1:fyh1, fyl2:fyh2, fyl3:fyh3) real(amrex_real) :: fz(fzl1:fzh1, fzl2:fzh2, fzl3:fzh3) real(amrex_real) :: dx(3), problo(3) ! Local variables integer :: i,j,k do k=lo(3),hi(3) do j=lo(2),hi(2) do i=lo(1),hi(1) cc(i,j,k,1) = 0.5d0 * ( fx(i,j,k) + fx(i+1,j,k) ) cc(i,j,k,2) = 0.5d0 * ( fy(i,j,k) + fy(i,j+1,k) ) cc(i,j,k,3) = 0.5d0 * ( fz(i,j,k) + fz(i,j,k+1) ) enddo enddo enddo end subroutine bl_avg_fc_to_cc ! *************************************************************************************** ! subroutine bl_avg_cc_to_fc ! *************************************************************************************** subroutine bl_avg_cc_to_fc (xlo, xhi, ylo, yhi, zlo, zhi, & fx, fxl1, fxl2, fxl3, fxh1, fxh2, fxh3, & fy, fyl1, fyl2, fyl3, fyh1, fyh2, fyh3, & fz, fzl1, fzl2, fzl3, fzh1, fzh2, fzh3, & cc, ccl1, ccl2, ccl3, cch1, cch2, cch3, & dx, problo, coord_type) use amrex_fort_module, only : amrex_real implicit none integer :: xlo(3),xhi(3), ylo(3),yhi(3), zlo(3), zhi(3), coord_type integer :: fxl1, fxl2, fxl3, fxh1, fxh2, fxh3 integer :: fyl1, fyl2, fyl3, fyh1, fyh2, fyh3 integer :: fzl1, fzl2, fzl3, fzh1, fzh2, fzh3 integer :: ccl1, ccl2, ccl3, cch1, cch2, cch3 real(amrex_real) :: cc(ccl1:cch1, ccl2:cch2, ccl3:cch3) real(amrex_real) :: fx(fxl1:fxh1, fxl2:fxh2, fxl3:fxh3) real(amrex_real) :: fy(fyl1:fyh1, fyl2:fyh2, fyl3:fyh3) real(amrex_real) :: fz(fzl1:fzh1, fzl2:fzh2, fzl3:fzh3) real(amrex_real) :: dx(3), problo(3) ! Local variables integer :: i,j,k do k=xlo(3),xhi(3) do j=xlo(2),xhi(2) do i=xlo(1),xhi(1) fx(i,j,k) = 0.5d0 * (cc(i-1,j,k) + cc(i,j,k)) enddo enddo end do do k=ylo(3),yhi(3) do j=ylo(2),yhi(2) do i=ylo(1),yhi(1) fy(i,j,k) = 0.5d0 * (cc(i,j-1,k) + cc(i,j,k)) enddo enddo end do do k=zlo(3),zhi(3) do j=zlo(2),zhi(2) do i=zlo(1),zhi(1) fz(i,j,k) = 0.5d0 * (cc(i,j,k-1) + cc(i,j,k)) enddo enddo end do end subroutine bl_avg_cc_to_fc ! *************************************************************************************** ! subroutine bl_avgdown_faces ! *************************************************************************************** subroutine bl_avgdown_faces (lo, hi, & f, f_l1, f_l2, f_l3, f_h1, f_h2, f_h3, & c, c_l1, c_l2, c_l3, c_h1, c_h2, c_h3, & ratio,idir,nc) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3) integer :: f_l1, f_l2, f_l3, f_h1, f_h2, f_h3 integer :: c_l1, c_l2, c_l3, c_h1, c_h2, c_h3 integer :: ratio(3), idir, nc real(amrex_real) :: f(f_l1:f_h1, f_l2:f_h2, f_l3:f_h3, nc) real(amrex_real) :: c(c_l1:c_h1, c_l2:c_h2, c_l3:c_h3, nc) ! Local variables integer :: i, j, k, n, facx, facy, facz, iref, jref, kref, ii, jj, kk real(amrex_real) :: facInv facx = ratio(1) facy = ratio(2) facz = ratio(3) if (idir .eq. 0) then facInv = 1.d0 / (facy*facz) do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do kref = 0, facz-1 do jref = 0, facy-1 c(i,j,k,n) = c(i,j,k,n) + f(ii,jj+jref,kk+kref,n) end do end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else if (idir .eq. 1) then facInv = 1.d0 / (facx*facz) do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do kref = 0, facz-1 do iref = 0, facx-1 c(i,j,k,n) = c(i,j,k,n) + f(ii+iref,jj,kk+kref,n) end do end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else facInv = 1.d0 / (facx*facy) do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do jref = 0, facy-1 do iref = 0, facx-1 c(i,j,k,n) = c(i,j,k,n) + f(ii+iref,jj+jref,kk,n) end do end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do end if end subroutine bl_avgdown_faces ! *************************************************************************************** ! subroutine bl_avgdown_faces ! *************************************************************************************** subroutine bl_avgdown_edges (lo, hi, & f, f_l1, f_l2, f_l3, f_h1, f_h2, f_h3, & c, c_l1, c_l2, c_l3, c_h1, c_h2, c_h3, & ratio,idir,nc) use amrex_fort_module, only : amrex_real implicit none integer :: lo(3),hi(3) integer :: f_l1, f_l2, f_l3, f_h1, f_h2, f_h3 integer :: c_l1, c_l2, c_l3, c_h1, c_h2, c_h3 integer :: ratio(3), idir, nc real(amrex_real) :: f(f_l1:f_h1, f_l2:f_h2, f_l3:f_h3, nc) real(amrex_real) :: c(c_l1:c_h1, c_l2:c_h2, c_l3:c_h3, nc) ! Local variables integer :: i, j, k, n, facx, facy, facz, iref, jref, kref, ii, jj, kk real(amrex_real) :: facInv facx = ratio(1) facy = ratio(2) facz = ratio(3) if (idir .eq. 0) then facInv = 1.d0 / facx do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do iref = 0, facx-1 c(i,j,k,n) = c(i,j,k,n) + f(ii+iref,jj,kk,n) end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else if (idir .eq. 1) then facInv = 1.d0 / facy do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do jref = 0, facy-1 c(i,j,k,n) = c(i,j,k,n) + f(ii,jj+jref,kk,n) end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do else facInv = 1.d0 / facz do n = 1, nc do k = lo(3), hi(3) kk = k * facz do j = lo(2), hi(2) jj = j * facy do i = lo(1), hi(1) ii = i * facx c(i,j,k,n) = 0.d0 do kref = 0, facz-1 c(i,j,k,n) = c(i,j,k,n) + f(ii,jj,kk+kref,n) end do c(i,j,k,n) = c(i,j,k,n) * facInv end do end do end do end do end if end subroutine bl_avgdown_edges ! *************************************************************************************** ! subroutine bl_avgdown ! *************************************************************************************** subroutine bl_avgdown (lo,hi,& fine,f_l1,f_l2,f_l3,f_h1,f_h2,f_h3, & crse,c_l1,c_l2,c_l3,c_h1,c_h2,c_h3, & lrat,ncomp) use amrex_fort_module, only : amrex_real implicit none integer f_l1,f_l2,f_l3,f_h1,f_h2,f_h3 integer c_l1,c_l2,c_l3,c_h1,c_h2,c_h3 integer lo(3), hi(3) integer lrat(3), ncomp real(amrex_real) crse(c_l1:c_h1,c_l2:c_h2,c_l3:c_h3,ncomp) real(amrex_real) fine(f_l1:f_h1,f_l2:f_h2,f_l3:f_h3,ncomp) integer :: i, j, k, ii, jj, kk, n, iref, jref, kref real(amrex_real) :: volfrac volfrac = 1.d0 / dble(lrat(1)*lrat(2)*lrat(3)) do n = 1, ncomp do k = lo(3), hi(3) kk = k * lrat(3) do j = lo(2), hi(2) jj = j * lrat(2) do i = lo(1), hi(1) ii = i * lrat(1) crse(i,j,k,n) = 0.d0 do kref = 0, lrat(3)-1 do jref = 0, lrat(2)-1 do iref = 0, lrat(1)-1 crse(i,j,k,n) = crse(i,j,k,n) + fine(ii+iref,jj+jref,kk+kref,n) end do end do end do crse(i,j,k,n) = volfrac * crse(i,j,k,n) end do end do end do end do end subroutine bl_avgdown subroutine bl_avgdown_nodes (lo,hi,& fine,f_l1,f_l2,f_l3,f_h1,f_h2,f_h3, & crse,c_l1,c_l2,c_l3,c_h1,c_h2,c_h3, & lrat,ncomp) use amrex_fort_module, only : amrex_real implicit none integer f_l1,f_l2,f_l3,f_h1,f_h2,f_h3 integer c_l1,c_l2,c_l3,c_h1,c_h2,c_h3 integer lo(3), hi(3) integer lrat(3), ncomp real(amrex_real) crse(c_l1:c_h1,c_l2:c_h2,c_l3:c_h3,ncomp) real(amrex_real) fine(f_l1:f_h1,f_l2:f_h2,f_l3:f_h3,ncomp) integer :: i, j, k, ii, jj, kk, n do n = 1, ncomp do k = lo(3), hi(3) kk = k * lrat(3) do j = lo(2), hi(2) jj = j * lrat(2) do i = lo(1), hi(1) ii = i * lrat(1) crse(i,j,k,n) = fine(ii,jj,kk,n) end do end do end do end do end subroutine bl_avgdown_nodes subroutine amrex_compute_divergence (lo, hi, divu, dlo, dhi, u, ulo, uhi, & v, vlo, vhi, w, wlo, whi, dxinv) bind(c) use amrex_fort_module, only : amrex_real implicit none integer, dimension(3), intent(in) :: lo, hi, dlo, dhi, ulo, uhi, vlo, vhi, wlo, whi real(amrex_real), intent(inout) :: divu(dlo(1):dhi(1),dlo(2):dhi(2),dlo(3):dhi(3)) real(amrex_real), intent(in ) :: u(ulo(1):uhi(1),ulo(2):uhi(2),ulo(3):uhi(3)) real(amrex_real), intent(in ) :: v(vlo(1):vhi(1),vlo(2):vhi(2),vlo(3):vhi(3)) real(amrex_real), intent(in ) :: w(wlo(1):whi(1),wlo(2):whi(2),wlo(3):whi(3)) real(amrex_real), intent(in) :: dxinv(3) integer :: i,j,k do k = lo(3), hi(3) do j = lo(2), hi(2) do i = lo(1), hi(1) divu(i,j,k) = dxinv(1) * (u(i+1,j,k)-u(i,j,k)) & + dxinv(2) * (v(i,j+1,k)-v(i,j,k)) & + dxinv(3) * (w(i,j,k+1)-w(i,j,k)) end do end do end do end subroutine amrex_compute_divergence

Src/Base/AMReX_MultiFabUtil_3d.f90

! RUN: bbc %s -emit-fir --canonicalize -o - | FileCheck %s ! CHECK-LABEL pause_test subroutine pause_test() ! CHECK: fir.call @_Fortran{{.*}}PauseStatement() ! CHECK-NEXT: return pause end subroutine

flang/test/Lower/pause-statement.f90

SUBROUTINE SKALE (N, MSTAR, KD, Z, XI, SCALE, DSCALE) C C********************************************************************** C C purpose C provide a proper scaling of the state variables, used C to control the damping factor for a newton iteration [2]. C C variables C C n = number of mesh subintervals C mstar = number of unknomns in z(u(x)) C kd = number of unknowns in dmz C z = the global unknown vector C xi = the current mesh C scale = scaling vector for z C dscale = scaling vector for dmz C C********************************************************************** C IMPLICIT REAL*8 (A-H,O-Z) DIMENSION Z(MSTAR,1), SCALE(MSTAR,1), DSCALE(KD,1) DIMENSION XI(1), BASM(5) C COMMON /COLORD/ K, NCOMP, ID1, ID2, MMAX, M(20) C BASM(1) = 1.D0 DO 50 J=1,N IZ = 1 H = XI(J+1) - XI(J) DO 10 L = 1, MMAX BASM(L+1) = BASM(L) * H / DFLOAT(L) 10 CONTINUE DO 40 ICOMP = 1, NCOMP SCAL = (DABS(Z(IZ,J)) + DABS(Z(IZ,J+1))) * .5D0 + 1.D0 MJ = M(ICOMP) DO 20 L = 1, MJ SCALE(IZ,J) = BASM(L) / SCAL IZ = IZ + 1 20 CONTINUE SCAL = BASM(MJ+1) / SCAL DO 30 IDMZ = ICOMP, KD, NCOMP DSCALE(IDMZ,J) = SCAL 30 CONTINUE 40 CONTINUE 50 CONTINUE NP1 = N + 1 DO 60 IZ = 1, MSTAR SCALE(IZ,NP1) = SCALE(IZ,N) 60 CONTINUE RETURN END

src/f2cl/packages/colnew/skale.f

program simple_example use fregex implicit none type(regex_t) :: re type(match_t) :: match character(:), allocatable :: string character(:), allocatable :: pattern ! Operations pattern = "(.+)([\+\-\*\/]{1})(.+)" string = "1/sin(x)" call re % compile(pattern) call re % match(string) if (size(re % matches) > 0) then match = re % matches(1) ! Gets the first match print*, "string: ", string print*, "pattern: ", pattern print*, "First Group: ", match % groups(1) % content ! 1 print*, "Second Group: ", match % groups(2) % content ! / print*, "Third Group: ", match % groups(3) % content ! sin(x) end if end program

app/simple_example.f90

subroutine nsc_pr_iniunk(a) !DESCRIPTION ! This routine sets up the initial conditions for the pressure, ! velocity and temperature fields. ! If this is a restart, initial conditions are loaded somewhere else ! but Dirichlet boundary conditions are still loaded here. !----------------------------------------------------------------------- use typre use Mod_NSCompressiblePrimitive use Mod_NSCompressibleSubroutines use Mod_NscExacso implicit none class(NSCompressiblePrimitiveProblem) :: a type(NscExacso) :: exacso integer(ip) :: icomp,ipoin,idime,ndime,npoin real(rp) :: energ,acvis,actco,accph,accvh real(rp) :: expre, extem !Exact Values real(rp), allocatable :: exprg(:),exvel(:),exveg(:,:),exteg(:) !Nodal coordinates real(rp), pointer :: coord(:) => NULL() call a%Mesh%GetNdime(ndime) call a%Mesh%GetNpoin(npoin) call a%GetPhysicalParameters(acvis,actco,accph,accvh) if(accph-accvh<zensi) then call runend('Nsc_iniunk: Gas constant is negative') end if do ipoin=1,npoin if((a%kfl_fixno(1,ipoin)==1) .or. (a%kfl_fixno(1,ipoin) == 0)) then a%press(ipoin,a%ncomp) = a%bvess(1,ipoin,1) end if if((a%kfl_fixno(ndime+2,ipoin)==1) .or. (a%kfl_fixno(ndime+2,ipoin)==0)) then a%tempe(ipoin,a%ncomp) = a%bvess(ndime+2,ipoin,1) end if a%densf(ipoin,1) = (a%press(ipoin,a%ncomp)+a%relpre)/((accph-accvh)*(a%tempe(ipoin,a%ncomp)+a%reltem)) do idime=1,ndime if((a%kfl_fixno(idime+1,ipoin)==1) .or. (a%kfl_fixno(idime+1,ipoin) == 0)) then a%veloc(idime,ipoin,a%ncomp) = a%bvess(idime+1,ipoin,1) a%momen(idime,ipoin,1) = a%densf(ipoin,1)*a%bvess(idime+1,ipoin,1) end if end do call nsc_ComputeEnergy(ndime,accvh,(a%tempe(ipoin,a%ncomp)+a%reltem),a%veloc(:,ipoin,a%ncomp),energ) a%energ(ipoin,1) = a%densf(ipoin,1)*energ end do if(minval(a%densf(:,1))<(-zensi)) then call runend('Nsc_iniunk: Initial density is negative') end if if(a%kfl_incnd==1) then call runend('Nsc_iniunk: Initial conditions not implemented') end if if(a%kfl_exacs/=0) then ! Allocate exact components call a%Memor%alloc(ndime,exprg,'exprg','nsc_iniunk') call a%Memor%alloc(ndime,exvel,'exvel','nsc_iniunk') call a%Memor%alloc(ndime,ndime,exveg,'exveg','nsc_iniunk') call a%Memor%alloc(ndime,exteg,'exteg','nsc_iniunk') do ipoin = 1,npoin call a%Mesh%GetPointCoord(ipoin,coord) call exacso%nsc_ComputeSolution(ndime,coord,a) call exacso%nsc_GetPressure(ndime,expre,exprg) call exacso%nsc_GetVelocity(ndime,exvel,exveg) call exacso%nsc_GetTemperature(ndime,extem,exteg) a%press(ipoin,a%ncomp) = expre do idime=1,ndime a%veloc(idime,ipoin,a%ncomp) = exvel(idime) end do a%tempe(ipoin,a%ncomp) = extem end do ! Allocate exact components call a%Memor%dealloc(ndime,exprg,'exprg','nsc_iniunk') call a%Memor%dealloc(ndime,exvel,'exvel','nsc_iniunk') call a%Memor%dealloc(ndime,ndime,exveg,'exveg','nsc_iniunk') call a%Memor%dealloc(ndime,exteg,'exteg','nsc_iniunk') end if !Assign var(n,i,*) <-- var(n-1,*,*), initial guess after initialization (or reading restart) do icomp = 1,a%ncomp-1 a%press(1:npoin,icomp) = a%press(1:npoin,a%ncomp) a%veloc(1:ndime,1:npoin,icomp) = a%veloc(1:ndime,1:npoin,a%ncomp) a%tempe(1:npoin,icomp) = a%tempe(1:npoin,a%ncomp) enddo call a%Ifconf end subroutine nsc_pr_iniunk

Sources/modules/nscomp/PrimitiveUnknowns/nsc_pr_iniunk.f90

less_toxic(y1,h1). less_toxic(hh1,w1). less_toxic(ee1,b1). less_toxic(m1,cc1). less_toxic(bb1,z1). less_toxic(ff1,v1). less_toxic(ll1,b1). less_toxic(o1,jj1). less_toxic(j1,dd1). less_toxic(n1,cc1). less_toxic(w1,aa1). less_toxic(q1,l1). less_toxic(m1,l1). less_toxic(bb1,aa1). less_toxic(b1,i1). less_toxic(ee1,l1). less_toxic(ee1,jj1). less_toxic(m1,w1). less_toxic(q1,d1). less_toxic(cc1,l1). less_toxic(kk1,v1). less_toxic(n1,t1). less_toxic(b1,d1). less_toxic(o1,a1). less_toxic(b1,aa1). less_toxic(f1,d1). less_toxic(j1,i1). less_toxic(n1,aa1). less_toxic(n1,u1). less_toxic(o1,i1). less_toxic(o1,e1). less_toxic(w1,v1). less_toxic(ff1,t1). less_toxic(cc1,z1). less_toxic(g1,l1). less_toxic(o1,l1). less_toxic(y1,p1). less_toxic(ii1,t1). less_toxic(x1,f1). less_toxic(hh1,aa1). less_toxic(bb1,h1). less_toxic(hh1,e1). less_toxic(k1,cc1). less_toxic(m1,b1). less_toxic(kk1,z1). less_toxic(ee1,e1). less_toxic(s1,t1). less_toxic(o1,d1). less_toxic(ll1,jj1). less_toxic(r1,l1). less_toxic(ff1,e1). less_toxic(i1,c1). less_toxic(g1,jj1). less_toxic(bb1,dd1). less_toxic(ff1,d1). less_toxic(w1,h1). less_toxic(a1,p1). less_toxic(p1,c1). less_toxic(j1,b1). less_toxic(ee1,u1). less_toxic(cc1,f1). less_toxic(ll1,l1). less_toxic(ff1,w1). less_toxic(f1,c1). less_toxic(j1,c1). less_toxic(g1,aa1). less_toxic(n1,f1). less_toxic(x1,l1). less_toxic(b1,u1). less_toxic(kk1,c1). less_toxic(cc1,u1). less_toxic(o1,w1). less_toxic(y1,cc1). less_toxic(ee1,t1). less_toxic(b1,h1). less_toxic(ee1,h1). less_toxic(b1,p1). less_toxic(x1,cc1). less_toxic(ee1,dd1). less_toxic(j1,u1). less_toxic(x1,v1). less_toxic(o1,u1). less_toxic(r1,cc1). less_toxic(j1,t1). less_toxic(g1,v1). less_toxic(x1,u1). less_toxic(e1,p1). less_toxic(w1,dd1). less_toxic(ff1,a1). less_toxic(bb1,w1). less_toxic(ff1,aa1). less_toxic(bb1,v1). less_toxic(r1,z1). less_toxic(bb1,d1). less_toxic(ll1,cc1). less_toxic(y1,u1). less_toxic(s1,i1). less_toxic(k1,t1). less_toxic(kk1,cc1). less_toxic(o1,p1). less_toxic(k1,e1). less_toxic(y1,t1). less_toxic(n1,v1). less_toxic(ii1,i1). less_toxic(o1,v1). less_toxic(ee1,p1). less_toxic(x1,dd1). less_toxic(l1,f1). less_toxic(x1,aa1). less_toxic(j1,z1). less_toxic(j1,l1). less_toxic(a1,d1). less_toxic(cc1,aa1). less_toxic(hh1,u1). less_toxic(ff1,b1). less_toxic(s1,z1). less_toxic(r1,u1). less_toxic(ee1,d1). less_toxic(n1,jj1). less_toxic(y1,a1). less_toxic(s1,a1). less_toxic(hh1,dd1). less_toxic(ff1,p1). less_toxic(o1,cc1). less_toxic(k1,h1). less_toxic(w1,a1). less_toxic(q1,z1). less_toxic(q1,a1). less_toxic(m1,c1). less_toxic(kk1,w1). less_toxic(ff1,z1). less_toxic(cc1,t1). less_toxic(u1,d1). less_toxic(b1,e1). less_toxic(ll1,f1). less_toxic(kk1,l1). less_toxic(r1,t1). less_toxic(ll1,h1). less_toxic(cc1,jj1). less_toxic(hh1,t1). less_toxic(q1,cc1). less_toxic(ll1,w1). less_toxic(ii1,aa1). less_toxic(g1,u1). less_toxic(ii1,c1). less_toxic(ff1,dd1). less_toxic(hh1,l1). less_toxic(m1,e1). less_toxic(ee1,v1). less_toxic(bb1,u1). less_toxic(j1,d1). less_toxic(g1,dd1). less_toxic(ii1,a1). less_toxic(y1,dd1). less_toxic(q1,aa1). less_toxic(ii1,e1). less_toxic(k1,a1). less_toxic(cc1,i1). less_toxic(kk1,p1). less_toxic(s1,b1). less_toxic(ee1,cc1). less_toxic(x1,z1). less_toxic(x1,t1). less_toxic(r1,e1). less_toxic(y1,f1). less_toxic(o1,aa1). less_toxic(ee1,w1). less_toxic(bb1,a1). less_toxic(o1,t1). less_toxic(n1,h1). less_toxic(k1,l1). less_toxic(ll1,i1). less_toxic(k1,b1). less_toxic(q1,t1). less_toxic(k1,p1). less_toxic(b1,t1). less_toxic(q1,f1). less_toxic(dd1,d1). less_toxic(l1,c1). less_toxic(w1,f1). less_toxic(ii1,b1). less_toxic(kk1,t1). less_toxic(ii1,w1). less_toxic(g1,h1). less_toxic(bb1,c1). less_toxic(u1,c1). less_toxic(y1,d1). less_toxic(n1,dd1). less_toxic(b1,v1). less_toxic(aa1,c1). less_toxic(hh1,h1). less_toxic(s1,p1). less_toxic(g1,t1). less_toxic(y1,b1). less_toxic(n1,z1). less_toxic(hh1,z1). less_toxic(ll1,c1). less_toxic(e1,d1). less_toxic(r1,dd1). less_toxic(cc1,dd1). less_toxic(w1,d1). less_toxic(y1,v1). less_toxic(jj1,c1). less_toxic(r1,h1). less_toxic(hh1,c1). less_toxic(s1,d1). less_toxic(b1,c1). less_toxic(q1,w1). less_toxic(jj1,d1). less_toxic(a1,c1). less_toxic(m1,f1). less_toxic(s1,jj1). less_toxic(k1,d1). less_toxic(hh1,v1). less_toxic(bb1,f1). less_toxic(r1,aa1). less_toxic(ee1,i1). less_toxic(j1,a1). less_toxic(m1,d1). less_toxic(n1,w1). less_toxic(v1,c1). less_toxic(j1,e1). less_toxic(cc1,c1). less_toxic(aa1,p1). less_toxic(ii1,u1). less_toxic(m1,dd1). less_toxic(k1,u1). less_toxic(cc1,e1). less_toxic(ee1,aa1). less_toxic(hh1,p1). less_toxic(v1,d1). less_toxic(x1,a1). less_toxic(x1,b1). less_toxic(l1,d1). less_toxic(y1,w1). less_toxic(r1,d1). less_toxic(x1,e1). less_toxic(u1,f1). less_toxic(n1,p1). less_toxic(w1,z1). less_toxic(r1,a1). less_toxic(x1,jj1). less_toxic(j1,p1). less_toxic(s1,aa1). less_toxic(ll1,aa1). less_toxic(ll1,e1). less_toxic(s1,w1). less_toxic(m1,jj1). less_toxic(cc1,v1). less_toxic(kk1,i1). less_toxic(t1,f1). less_toxic(w1,l1). less_toxic(n1,d1). less_toxic(r1,b1). less_toxic(dd1,p1). less_toxic(kk1,d1). less_toxic(m1,a1). less_toxic(ll1,z1). less_toxic(g1,w1). less_toxic(kk1,u1). less_toxic(k1,jj1). less_toxic(t1,p1). less_toxic(h1,c1). less_toxic(cc1,p1). less_toxic(y1,l1). less_toxic(y1,jj1). less_toxic(w1,jj1). less_toxic(j1,v1). less_toxic(ll1,p1). less_toxic(w1,p1). less_toxic(k1,i1). less_toxic(s1,dd1). less_toxic(n1,a1). less_toxic(s1,l1). less_toxic(q1,p1). less_toxic(s1,f1). less_toxic(r1,v1). less_toxic(aa1,d1). less_toxic(x1,w1). less_toxic(ii1,dd1). less_toxic(bb1,p1). less_toxic(n1,c1). less_toxic(ff1,i1). less_toxic(p1,f1). less_toxic(hh1,jj1). less_toxic(b1,dd1). less_toxic(q1,e1). less_toxic(ll1,a1). less_toxic(v1,p1). less_toxic(r1,i1). less_toxic(n1,b1). less_toxic(ee1,c1). less_toxic(r1,jj1). less_toxic(hh1,d1). less_toxic(x1,d1). less_toxic(b1,z1). less_toxic(g1,c1). less_toxic(m1,aa1). less_toxic(ii1,v1). less_toxic(bb1,t1). less_toxic(n1,e1). less_toxic(b1,f1). less_toxic(ii1,z1). less_toxic(hh1,f1). less_toxic(ff1,u1). less_toxic(kk1,dd1). less_toxic(ii1,p1). less_toxic(j1,jj1). less_toxic(g1,b1). less_toxic(aa1,f1). less_toxic(g1,i1). less_toxic(i1,f1). less_toxic(q1,b1). less_toxic(r1,f1). less_toxic(ff1,cc1). less_toxic(m1,u1). less_toxic(g1,d1). less_toxic(y1,z1). less_toxic(ii1,d1). less_toxic(hh1,a1). less_toxic(n1,l1). less_toxic(j1,w1). less_toxic(s1,h1). less_toxic(t1,d1). less_toxic(q1,v1). less_toxic(ee1,z1). less_toxic(o1,dd1). less_toxic(z1,d1). less_toxic(bb1,jj1). less_toxic(y1,aa1). less_toxic(w1,kk1). less_toxic(v1,x1). less_toxic(f1,ee1). less_toxic(dd1,ll1). less_toxic(t1,q1). less_toxic(cc1,g1). less_toxic(h1,q1). less_toxic(i1,o1). less_toxic(h1,ff1). less_toxic(f1,m1). less_toxic(d1,k1). less_toxic(f1,i1). less_toxic(jj1,kk1). less_toxic(d1,p1). less_toxic(h1,b1). less_toxic(u1,ff1). less_toxic(a1,ii1). less_toxic(l1,ii1). less_toxic(a1,g1). less_toxic(e1,ii1). less_toxic(e1,j1). less_toxic(i1,cc1). less_toxic(p1,g1). less_toxic(cc1,m1). less_toxic(d1,ff1). less_toxic(w1,y1). less_toxic(c1,h1). less_toxic(p1,i1). less_toxic(u1,kk1). less_toxic(cc1,k1). less_toxic(l1,j1). less_toxic(d1,dd1). less_toxic(p1,z1). less_toxic(b1,y1). less_toxic(d1,ee1). less_toxic(t1,bb1). less_toxic(e1,kk1). less_toxic(p1,m1). less_toxic(p1,r1). less_toxic(u1,bb1). less_toxic(h1,m1). less_toxic(z1,r1). less_toxic(u1,b1). less_toxic(u1,ii1). less_toxic(b1,kk1). less_toxic(z1,ll1). less_toxic(a1,ll1). less_toxic(p1,a1). less_toxic(v1,kk1). less_toxic(c1,m1). less_toxic(c1,s1). less_toxic(i1,j1). less_toxic(t1,w1). less_toxic(t1,r1). less_toxic(v1,j1). less_toxic(f1,q1). less_toxic(dd1,n1). less_toxic(aa1,b1). less_toxic(f1,k1). less_toxic(f1,cc1). less_toxic(jj1,s1). less_toxic(jj1,g1). less_toxic(e1,k1). less_toxic(e1,ff1). less_toxic(f1,u1). less_toxic(jj1,y1). less_toxic(w1,n1). less_toxic(f1,p1). less_toxic(dd1,bb1). less_toxic(a1,q1). less_toxic(e1,b1). less_toxic(cc1,s1).

foldsCreator/files/datasets/alzheimer_toxic_0.2noisy/train9.f

*----------------------------------------------------------------------* subroutine print_op_info(lulog,modestr,op_info) *----------------------------------------------------------------------* implicit none include 'mdef_operator_info.h' integer, intent(in) :: & lulog character(*), intent(in) :: & modestr type(operator_info), intent(in) :: & op_info integer :: & idx type(operator_array), pointer :: & op_arr(:) type(me_list_array), pointer :: & mel_arr(:) select case(trim(modestr)) case('op','ops','operator','operators') op_arr => op_info%op_arr write(lulog,*) 'Number of operators defined: ',op_info%nops write(lulog,'(x,40("-"))') write(lulog,*) & ' idx op vtx blk current list' write(lulog,'(x,40("-"))') do idx = 1, op_info%nops write(lulog,'(2x,i3,a8,3x,i1,2x,i2,2x,a16)') & idx,trim(op_arr(idx)%op%name), & op_arr(idx)%op%njoined, op_arr(idx)%op%n_occ_cls, & trim(op_arr(idx)%op%assoc_list) end do write(lulog,'(x,40("-"))') case('mel','me_list','lists','ME-lists') mel_arr => op_info%mel_arr write(lulog,*) 'Number of lists defined: ',op_info%nmels write(lulog,'(x,78("-"))') write(lulog,*) & ' idx list sym spn length op. '// & ' file' write(lulog,'(x,78("-"))') do idx = 1, op_info%nmels if (associated(mel_arr(idx)%mel%fhand)) then write(lulog,'(2x,i3,a16,2x,i1,x,i2,x,i12,x,a8,x,a29)') & idx,trim(mel_arr(idx)%mel%label), & mel_arr(idx)%mel%gamt, & mel_arr(idx)%mel%mst, & mel_arr(idx)%mel%len_op, & trim(mel_arr(idx)%mel%op%name), & trim(mel_arr(idx)%mel%fhand%name) else write(lulog,'(2x,i3,a16,2x,i1,x,i2,x,i12,a8)') & idx,trim(mel_arr(idx)%mel%label), & mel_arr(idx)%mel%gamt, & mel_arr(idx)%mel%mst, & mel_arr(idx)%mel%len_op, & trim(mel_arr(idx)%mel%op%name) end if end do write(lulog,'(x,78("-"))') end select return end

operators/print_op_info.f

!! Copyright (C) Stichting Deltares, 2012-2016. !! !! This program is free software: you can redistribute it and/or modify !! it under the terms of the GNU General Public License version 3, !! as published by the Free Software Foundation. !! !! This program is distributed in the hope that it will be useful, !! but WITHOUT ANY WARRANTY; without even the implied warranty of !! MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the !! GNU General Public License for more details. !! !! You should have received a copy of the GNU General Public License !! along with this program. If not, see <http://www.gnu.org/licenses/>. !! !! contact: [email protected] !! Stichting Deltares !! P.O. Box 177 !! 2600 MH Delft, The Netherlands !! !! All indications and logos of, and references to registered trademarks !! of Stichting Deltares remain the property of Stichting Deltares. All !! rights reserved. subroutine read_sub_procgrid( notot , syname , GridPs , isysg , ierr ) ! Deltares Software Centre !>\file !> read the SUBSTANCE_PROCESSGRID information and update the isysg array !> !> several input possibilities exist: !> - ALL indicates that all substances should work on the grid that will be mentioned !> - a series of substances IDs indicating that those will work on the mentioned grid !> then a grid name is required, to specify the grid where the substances work on. ! Created : Somewhere 2003 by Jan van Beek as layerd bed special ! Modified : May 2011 by Leo Postma merge with standard version ! global declarations use grids use rd_token ! for the reading of tokens use timers ! performance timers implicit none ! declaration of arguments integer , intent(in ) :: notot !< nr of substances character(20) , intent(in ) :: syname(notot) !< substance names type(GridPointerColl) , intent(in ) :: GridPs !< collection of all grid definitions integer , intent(inout) :: isysg (notot) !< process gridnr of substances integer , intent(inout) :: ierr !< cummulative error count ! local declarations integer :: itoken ! integer token from input integer :: idummy ! dummy which content is not used real :: adummy ! dummy which content is not used character(len=255) :: ctoken ! character token from input character :: cdummy ! dummy which content is not used integer :: itype ! type of input to be needded integer :: ierr2 ! local error indication integer :: sysused(notot) ! work array substance selection integer :: isys ! index substance integer :: i_grid ! index grid in collection integer(4) :: ithndl = 0 if (timon) call timstrt( "read_sub_procgrid", ithndl ) ! some init sysused = 0 write ( lunut , 2000 ) ! read input do if ( gettoken( ctoken, ierr2 ) .gt. 0 ) goto 1000 select case (ctoken) case ('ALL') ! use all substances sysused = 1 write ( lunut , 2030 ) case default call zoek( ctoken, notot, syname, 20, isys ) ! use this substance if ( isys .gt. 0 ) then sysused(isys) = 1 write ( lunut , 2040 ) syname(isys) else i_grid = gridpointercollfind( GridPs, ctoken ) if ( i_grid .gt. 0 ) then ! use this grid, input is ready write ( lunut , 2050 ) trim(ctoken) exit else ! unrecognised token write ( lunut , 2020 ) trim(ctoken) goto 1000 endif endif end select enddo ! update the isysg array for all substances used in this block do isys = 1 , notot if ( sysused(isys) .eq. 1 ) isysg(isys) = i_grid enddo if (timon) call timstop( ithndl ) return 1000 write ( lunut, 2010 ) ierr = ierr + 1 if (timon) call timstop( ithndl ) return 2000 format (/' Reading SUBSTANCE_PROCESSGRID information:') 2010 format ( ' ERROR, reading SUBSTANCE_PROCESSGRID information.') 2020 format ( ' ERROR, unrecognized token: ',A) 2030 format ( ' Processgrid will be used for ALL substances') 2040 format ( ' Processgrid will be used for substance: ',A) 2050 format ( ' Processgrid for these substances is: ',A) end

docker/water/delft3d/tags/v6686/src/engines_gpl/waq/packages/waq_io/src/waq_io/read_sub_procgrid.f

MODULE caldyn_gcm_mod use mod_misc PRIVATE TYPE(t_message) :: req_ps, req_mass, req_theta_rhodz, req_u, req_qu public compute_caldyn_vert CONTAINS SUBROUTINE compute_caldyn_vert(u,theta,rhodz,convm, wflux,wwuu, dps,dtheta_rhodz,du) use prec use mod_misc IMPLICIT NONE REAL(rstd),INTENT(IN) :: u(iim*3*jjm,llm) REAL(rstd),INTENT(IN) :: theta(iim*jjm,llm) REAL(rstd),INTENT(IN) :: rhodz(iim*jjm,llm) REAL(rstd),INTENT(INOUT) :: convm(iim*jjm,llm) ! mass flux convergence REAL(rstd),INTENT(INOUT) :: wflux(iim*jjm,llm+1) ! vertical mass flux (kg/m2/s) REAL(rstd),INTENT(INOUT) :: wwuu(iim*3*jjm,llm+1) REAL(rstd),INTENT(INOUT) :: du(iim*3*jjm,llm) REAL(rstd),INTENT(INOUT) :: dtheta_rhodz(iim*jjm,llm) REAL(rstd),INTENT(INOUT) :: dps(iim*jjm) ! temporary variable INTEGER :: i,j,ij,l REAL(rstd) :: p_ik, exner_ik !!$!!$KERN INTEGER,SAVE ::ij_omp_begin, ij_omp_end !!$!!$KERN!$OMP THREADPRIVATE(ij_omp_begin, ij_omp_end) !!$!!$KERN LOGICAL,SAVE :: first=.TRUE. LOGICAL,SAVE :: first=.false. !$OMP THREADPRIVATE(first) CALL trace_start("compute_geopot") !!$!!##KERNEL: this section is never called when kernelize. !!$!!$KERN IF (first) THEN !!$!!$KERN first=.FALSE. !!$!!$KERN CALL distrib_level(ij_end-ij_begin+1,ij_omp_begin,ij_omp_end) !!$!!$KERN ij_omp_begin=ij_omp_begin+ij_begin-1 !!$!!$KERN ij_omp_end=ij_omp_end+ij_begin-1 !!$!!$KERN ENDIF ! REAL(rstd) :: wwuu(iim*3*jjm,llm+1) ! tmp var, don't know why but gain 30% on the whole code in opemp ! need to be understood ! wwuu=wwuu_out CALL trace_start("compute_caldyn_vert") !$OMP BARRIER !!! cumulate mass flux convergence from top to bottom ! IF (is_omp_level_master) THEN DO l = llm-1, 1, -1 ! IF (caldyn_conserv==energy) CALL test_message(req_qu) !!$OMP DO SCHEDULE(STATIC) !DIR$ SIMD DO ij=ij_omp_begin,ij_omp_end convm(ij,l) = convm(ij,l) + convm(ij,l+1) ENDDO ENDDO ! ENDIF !$OMP BARRIER ! FLUSH on convm !!!!!!!!!!!!!!!!!!!!!!!!! ! compute dps IF (is_omp_first_level) THEN !DIR$ SIMD DO ij=ij_begin,ij_end ! dps/dt = -int(div flux)dz dps(ij) = convm(ij,1) * g ENDDO ENDIF !!! Compute vertical mass flux (l=1,llm+1 done by caldyn_BC) DO l=ll_beginp1,ll_end ! IF (caldyn_conserv==energy) CALL test_message(req_qu) !DIR$ SIMD DO ij=ij_begin,ij_end ! w = int(z,ztop,div(flux)dz) + B(eta)dps/dt ! => w>0 for upward transport wflux( ij, l ) = bp(l) * convm( ij, 1 ) - convm( ij, l ) ENDDO ENDDO !--> flush wflux !$OMP BARRIER DO l=ll_begin,ll_endm1 !DIR$ SIMD DO ij=ij_begin,ij_end dtheta_rhodz(ij, l ) = dtheta_rhodz(ij, l ) - 0.5 * ( wflux(ij,l+1) * (theta(ij,l) + theta(ij,l+1))) ENDDO ENDDO DO l=ll_beginp1,ll_end !DIR$ SIMD DO ij=ij_begin,ij_end dtheta_rhodz(ij, l ) = dtheta_rhodz(ij, l ) + 0.5 * ( wflux(ij,l ) * (theta(ij,l-1) + theta(ij,l) ) ) ENDDO ENDDO ! Compute vertical transport DO l=ll_beginp1,ll_end !DIR$ SIMD DO ij=ij_begin,ij_end wwuu(ij+u_right,l) = 0.5*( wflux(ij,l) + wflux(ij+t_right,l)) * (u(ij+u_right,l) - u(ij+u_right,l-1)) wwuu(ij+u_lup,l) = 0.5* ( wflux(ij,l) + wflux(ij+t_lup,l)) * (u(ij+u_lup,l) - u(ij+u_lup,l-1)) wwuu(ij+u_ldown,l) = 0.5*( wflux(ij,l) + wflux(ij+t_ldown,l)) * (u(ij+u_ldown,l) - u(ij+u_ldown,l-1)) ENDDO ENDDO !--> flush wwuu !$OMP BARRIER ! Add vertical transport to du DO l=ll_begin,ll_end !DIR$ SIMD DO ij=ij_begin,ij_end du(ij+u_right, l ) = du(ij+u_right,l) - (wwuu(ij+u_right,l+1)+ wwuu(ij+u_right,l)) / (rhodz(ij,l)+rhodz(ij+t_right,l)) du(ij+u_lup, l ) = du(ij+u_lup,l) - (wwuu(ij+u_lup,l+1) + wwuu(ij+u_lup,l)) / (rhodz(ij,l)+rhodz(ij+t_lup,l)) du(ij+u_ldown, l ) = du(ij+u_ldown,l) - (wwuu(ij+u_ldown,l+1)+ wwuu(ij+u_ldown,l)) / (rhodz(ij,l)+rhodz(ij+t_ldown,l)) ENDDO ENDDO ! DO l=ll_beginp1,ll_end !!DIR$ SIMD ! DO ij=ij_begin,ij_end ! wwuu_out(ij+u_right,l) = wwuu(ij+u_right,l) ! wwuu_out(ij+u_lup,l) = wwuu(ij+u_lup,l) ! wwuu_out(ij+u_ldown,l) = wwuu(ij+u_ldown,l) ! ENDDO ! ENDDO CALL trace_end("compute_caldyn_vert") END SUBROUTINE compute_caldyn_vert END MODULE caldyn_gcm_mod

kernels/DYNAMICO/comp_caldyn_vert/src/caldyn_gcm.f90

module occa_base_m ! occa/c/base.h use occa_types_m implicit none interface ! ---[ Globals & Flags ]---------------- ! occaProperties occaSettings(); type(occaProperties) function occaSettings() bind(C, name="occaSettings") import occaProperties end function ! void occaPrintModeInfo(); pure subroutine occaPrintModeInfo() bind(C, name="occaPrintModeInfo") end subroutine ! ====================================== ! ---[ Device ]------------------------- ! occaDevice occaHost(); type(occaDevice) function occaHost() bind(C, name="occaHost") import occaDevice end function ! occaDevice occaGetDevice(); type(occaDevice) function occaGetDevice() bind(C, name="occaGetDevice") import occaDevice end function ! void occaSetDevice(occaDevice device); subroutine occaSetDevice(device) bind(C, name="occaSetDevice") import occaDevice implicit none type(occaDevice), value :: device end subroutine ! void occaSetDeviceFromString(const char *info); subroutine occaSetDeviceFromString(info) & bind(C, name="occaSetDeviceFromString") import C_char implicit none character(len=1,kind=C_char), dimension(*), intent(in) :: info end subroutine ! occaProperties occaDeviceProperties(); type(occaProperties) function occaDeviceProperties() & bind(C, name="occaDeviceProperties") import occaProperties end function ! void occaLoadKernels(const char *library); subroutine occaLoadKernels(library) bind(C, name="occaLoadKernels") import C_char implicit none character(len=1,kind=C_char), dimension(*), intent(in) :: library end subroutine ! void occaFinish(); subroutine occaFinish() bind(C, name="occaFinish") end subroutine ! occaStream occaCreateStream(occaProperties props); type(occaStream) function occaCreateStream(props) & bind(C, name="occaCreateStream") import occaStream, occaProperties implicit none type(occaProperties), value :: props end function ! occaStream occaGetStream(); type(occaStream) function occaGetStream() bind(C, name="occaGetStream") import occaStream end function ! void occaSetStream(occaStream stream); subroutine occaSetStream(stream) bind(C, name="occaSetStream") import occaStream implicit none type(occaStream), value :: stream end subroutine ! occaStreamTag occaTagStream(); type(occaStreamTag) function occaTagStream() bind(C, name="occaTagStream") import occaStreamTag end function ! void occaWaitForTag(occaStreamTag tag); subroutine occaWaitForTag(tag) bind(C, name="occaWaitForTag") import occaStreamTag implicit none type(occaStreamTag), value :: tag end subroutine ! double occaTimeBetweenTags(occaStreamTag startTag, occaStreamTag endTag); real(C_double) function occaTimeBetweenTags(startTag, endTag) & bind(C, name="occaTimeBetweenTags") import occaStreamTag, C_double implicit none type(occaStreamTag), value :: startTag, endTag end function ! ====================================== ! ---[ Kernel ]------------------------- ! occaKernel occaBuildKernel(const char *filename, ! const char *kernelName, ! const occaProperties props); type(occaKernel) function occaBuildKernel(filename, & kernelName, & props) & bind(C, name="occaBuildKernel") import C_char, occaKernel, occaProperties implicit none character(len=1,kind=C_char), dimension(*), intent(in) :: filename, & kernelName type(occaProperties), value, intent(in) :: props end function ! occaKernel occaBuildKernelFromString(const char *source, ! const char *kernelName, ! const occaProperties props); type(occaKernel) function occaBuildKernelFromString(str, & kernelName, & props) & bind(C, name="occaBuildKernelFromString") import C_char, occaKernel, occaProperties implicit none character(len=1,kind=C_char), dimension(*), intent(in) :: str, & kernelName type(occaProperties), value, intent(in) :: props end function ! occaKernel occaBuildKernelFromBinary(const char *filename, ! const char *kernelName, ! const occaProperties props); type(occaKernel) function occaBuildKernelFromBinary(filename, & kernelName, & props) & bind(C, name="occaBuildKernelFromBinary") import C_char, occaKernel, occaProperties implicit none character(len=1,kind=C_char), dimension(*), intent(in) :: filename, & kernelName type(occaProperties), value, intent(in) :: props end function ! ====================================== ! ---[ Memory ]------------------------- ! occaMemory occaMalloc(const occaUDim_t bytes, ! const void *src, ! occaProperties props); type(occaMemory) function occaMalloc(bytes, src, props) & bind(C, name="occaMalloc") import occaMemory, occaUDim_t, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: bytes type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! occaMemory occaTypedMalloc(const occaUDim_t entries, ! const occaDtype type, ! const void *src, ! occaProperties props); type(occaMemory) function occaTypedMalloc(entries, type, src, props) & bind(C, name="occaTypedMalloc") import occaMemory, occaUDim_t, occaDtype, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: entries type(occaDtype), value, intent(in) :: type type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! void* occaUMalloc(const occaUDim_t bytes, ! const void *src, ! occaProperties props); type(C_void_ptr) function occaUMalloc(bytes, src, props) & bind(C, name="occaUMalloc") import occaUDim_t, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: bytes type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! void* occaTypedUMalloc(const occaUDim_t entries, ! const occaDtype type, ! const void *src, ! occaProperties props); type(C_void_ptr) function occaTypedUMalloc(entries, type, src, props) & bind(C, name="occaTypedUMalloc") import occaUDim_t, occaDtype, C_void_ptr, occaProperties implicit none integer(occaUDim_t), value, intent(in) :: entries type(occaDtype), value, intent(in) :: type type(C_void_ptr), value, intent(in) :: src type(occaProperties), value :: props end function ! ====================================== end interface end module occa_base_m

src/fortran/occa_base_m.f90

module stpvwnd10mmod !$$$ module documentation block ! . . . . ! module: stpvwnd10mmod module for stpvwnd10m ! prgmmr: ! ! abstract: module for stpvwnd10m ! ! program history log: ! 2016-05-05 pondeca ! 2017-03-19 yang - modify code to use polymorphic obsNode ! ! subroutines included: ! sub stpvwnd10m ! ! attributes: ! language: f90 ! machine: ! !$$$ end documentation block use m_obsNode , only: obsNode use m_vwnd10mNode, only: vwnd10mNode use m_vwnd10mNode, only: vwnd10mNode_typecast use m_vwnd10mNode, only: vwnd10mNode_nextcast implicit none PRIVATE PUBLIC stpvwnd10m contains subroutine stpvwnd10m(vwnd10mhead,rval,sval,out,sges,nstep) !$$$ subprogram documentation block ! . . . . ! subprogram: stpvwnd10m calculate penalty and contribution to stepsize ! ! abstract: calculate penalty and contribution to stepsize for 10m-vwind ! with addition of nonlinear qc ! ! program history log: ! 2016-05-05 pondeca ! ! input argument list: ! vwnd10mhead ! rvwnd10m - search direction for vwnd10m ! svwnd10m - analysis increment for vwnd10m ! sges - step size estimate (nstep) ! nstep - number of stepsizes (==0 means use outer iteration values) ! ! output argument list: ! out(1:nstep) - contribution to penalty for conventional vwnd10m - sges(1:nstep) ! ! attributes: ! language: f90 ! machine: ibm RS/6000 SP ! !$$$ use kinds, only: r_kind,i_kind,r_quad use qcmod, only: nlnqc_iter,varqc_iter use constants, only: half,one,two,tiny_r_kind,cg_term,zero_quad use gsi_bundlemod, only: gsi_bundle use gsi_bundlemod, only: gsi_bundlegetpointer implicit none ! Declare passed variables class(obsNode),pointer ,intent(in ) :: vwnd10mhead integer(i_kind) ,intent(in ) :: nstep real(r_quad),dimension(max(1,nstep)),intent(inout) :: out type(gsi_bundle) ,intent(in ) :: rval,sval real(r_kind),dimension(max(1,nstep)),intent(in ) :: sges ! Declare local variables integer(i_kind) j1,j2,j3,j4,kk,ier,istatus real(r_kind) w1,w2,w3,w4 real(r_kind) val,val2 real(r_kind) cg_vwnd10m,vwnd10m,wgross,wnotgross real(r_kind),dimension(max(1,nstep)):: pen real(r_kind) pg_vwnd10m real(r_kind),pointer,dimension(:) :: svwnd10m real(r_kind),pointer,dimension(:) :: rvwnd10m type(vwnd10mNode), pointer :: vwnd10mptr out=zero_quad ! If no vwnd10m data return if(.not. associated(vwnd10mhead))return ! Retrieve pointers ! Simply return if any pointer not found ier=0 call gsi_bundlegetpointer(sval,'vwnd10m',svwnd10m,istatus);ier=istatus+ier call gsi_bundlegetpointer(rval,'vwnd10m',rvwnd10m,istatus);ier=istatus+ier if(ier/=0)return ! vwnd10mptr => vwnd10mhead vwnd10mptr => vwnd10mNode_typecast(vwnd10mhead) do while (associated(vwnd10mptr)) if(vwnd10mptr%luse)then if(nstep > 0)then j1=vwnd10mptr%ij(1) j2=vwnd10mptr%ij(2) j3=vwnd10mptr%ij(3) j4=vwnd10mptr%ij(4) w1=vwnd10mptr%wij(1) w2=vwnd10mptr%wij(2) w3=vwnd10mptr%wij(3) w4=vwnd10mptr%wij(4) val =w1*rvwnd10m(j1)+w2*rvwnd10m(j2)+w3*rvwnd10m(j3)+w4*rvwnd10m(j4) val2=w1*svwnd10m(j1)+w2*svwnd10m(j2)+w3*svwnd10m(j3)+w4*svwnd10m(j4)-vwnd10mptr%res do kk=1,nstep vwnd10m=val2+sges(kk)*val pen(kk)= vwnd10m*vwnd10m*vwnd10mptr%err2 end do else pen(1)=vwnd10mptr%res*vwnd10mptr%res*vwnd10mptr%err2 end if ! Modify penalty term if nonlinear QC if (nlnqc_iter .and. vwnd10mptr%pg > tiny_r_kind .and. & vwnd10mptr%b > tiny_r_kind) then pg_vwnd10m=vwnd10mptr%pg*varqc_iter cg_vwnd10m=cg_term/vwnd10mptr%b wnotgross= one-pg_vwnd10m wgross = pg_vwnd10m*cg_vwnd10m/wnotgross do kk=1,max(1,nstep) pen(kk)= -two*log((exp(-half*pen(kk)) + wgross)/(one+wgross)) end do endif out(1) = out(1)+pen(1)*vwnd10mptr%raterr2 do kk=2,nstep out(kk) = out(kk)+(pen(kk)-pen(1))*vwnd10mptr%raterr2 end do end if ! vwnd10mptr => vwnd10mptr%llpoint vwnd10mptr => vwnd10mNode_nextcast(vwnd10mptr) end do return end subroutine stpvwnd10m end module stpvwnd10mmod

GEOSaana_GridComp/GSI_GridComp/stpvwnd10m.f90

SUBROUTINE SFFTFU( X, Y, N, M, ITYPE ) c c Decimation-in-time radix-2 split-radix complex FFT c c Arguments: c X - real part of data sequence (in/out) c Y - imag part of data sequence (in/out) c N,M - integers such that N = 2**M (in) c ITYPE - integer transform type (in) c ITYPE .ne. -1 --> forward transform c ITYPE .eq. -1 --> backward transform c c The forward transform computes c X(k) = sum_{j=0}^{N-1} x(j)*exp(-2ijk*pi/N) c c The backward transform computes c x(j) = (1/N) * sum_{k=0}^{N-1} X(k)*exp(2ijk*pi/N) c c c Here is the original program header... c C-------------------------------------------------------------C C A Duhamel-Hollman Split-Radix DIT FFT C C Reference: Electronics Letters, January 5, 1984 C C Complex input and output in data arrays X and Y C C Length is N = 2**M C C C C H.V. Sorensen Rice University Dec 1984 C C-------------------------------------------------------------C c c ... Scalar arguments ... INTEGER N, M, ITYPE c ... Array arguments ... REAL X(*), Y(*) c ... Local scalars ... INTEGER I, J, K, N1, N2, N4, IS, ID, I0, I1, I2, I3 REAL TWOPI, A, A3, E, XT, R1, R2, R3, S1, S2 REAL CC1, CC3, SS1, SS3 c ... Parameters ... PARAMETER ( TWOPI = 6.283185307179586476925287 ) c ... Intrinsic functions ... INTRINSIC SIN, COS c c ... Exe. statements ... c c ... Quick return ... IF ( N .EQ. 1 ) RETURN c c ... Conjugate if necessary ... IF ( ITYPE .EQ. -1 ) THEN DO 1, I = 1, N Y(I) = - Y(I) 1 CONTINUE ENDIF c c ... Bit reversal permutation ... 100 J = 1 N1 = N - 1 DO 104, I = 1, N1 IF ( I .GE. J ) GOTO 101 XT = X(J) X(J) = X(I) X(I) = XT XT = Y(J) Y(J) = Y(I) Y(I) = XT 101 K = N / 2 102 IF ( K .GE. J ) GOTO 103 J = J - K K = K / 2 GOTO 102 103 J = J + K 104 CONTINUE c c ... Length two transforms ... IS = 1 ID = 4 70 DO 60, I0 = IS, N, ID I1 = I0 + 1 R1 = X(I0) X(I0) = R1 + X(I1) X(I1) = R1 - X(I1) R1 = Y(I0) Y(I0) = R1 + Y(I1) Y(I1) = R1 - Y(I1) 60 CONTINUE IS = 2 * ID - 1 ID = 4 * ID IF ( IS .LT. N ) GOTO 70 c c ... L shaped butterflies ... N2 = 2 DO 10, K = 2, M N2 = N2 * 2 N4 = N2 / 4 E = TWOPI / N2 A = 0.0 DO 20, J = 1, N4 A3 = 3 * A CC1 = COS( A ) SS1 = SIN( A ) CC3 = COS( A3 ) SS3 = SIN( A3 ) A = J * E IS = J ID = 2 * N2 40 DO 30, I0 = IS, N-1, ID I1 = I0 + N4 I2 = I1 + N4 I3 = I2 + N4 R1 = X(I2) * CC1 + Y(I2) * SS1 S1 = Y(I2) * CC1 - X(I2) * SS1 R2 = X(I3) * CC3 + Y(I3) * SS3 S2 = Y(I3) * CC3 - X(I3) * SS3 R3 = R1 + R2 R2 = R1 - R2 R1 = S1 + S2 S2 = S1 - S2 X(I2) = X(I0) - R3 X(I0) = X(I0) + R3 X(I3) = X(I1) - S2 X(I1) = X(I1) + S2 Y(I2) = Y(I0) - R1 Y(I0) = Y(I0) + R1 Y(I3) = Y(I1) + R2 Y(I1) = Y(I1) - R2 30 CONTINUE IS = 2 * ID - N2 + J ID = 4 * ID IF ( IS .LT. N ) GOTO 40 20 CONTINUE 10 CONTINUE c c ... Conjugate and normalize if necessary ... IF ( ITYPE .EQ. -1 ) THEN DO 2, I = 1, N Y(I) = - Y(I) / N X(I) = X(I) / N 2 CONTINUE ENDIF c RETURN c c ... End of subroutine SFFTFU ... c END

benchees/sorensen/sfftfu.f

program t integer,dimension(3)::i=(/1,2,3/) where (i>1) i=i*2 print *,i end program t

tests/t0116x/t.f

! Overload fill value functions interface nf90_def_var_fill module procedure nf90_def_var_fill_OneByteInt, & nf90_def_var_fill_TwoByteInt, & nf90_def_var_fill_FourByteInt, & nf90_def_var_fill_EightByteInt, & nf90_def_var_fill_FourByteReal, & nf90_def_var_fill_EightByteReal end interface interface nf90_inq_var_fill module procedure nf90_inq_var_fill_OneByteInt, & nf90_inq_var_fill_TwoByteInt, & nf90_inq_var_fill_FourByteInt, & nf90_inq_var_fill_EightByteInt, & nf90_inq_var_fill_FourByteReal, & nf90_inq_var_fill_EightByteReal end interface

fortran/netcdf4_overloads.f90

Module mo_model use mo_kind , only: dp, i4 implicit none private public :: getrange public :: model interface model module procedure model_1d, model_0d end interface model ! module variables integer(i4) :: npara = 3 contains function GetRange() implicit none real(dp), dimension(npara,2) :: GetRange ! min value and max value of parameter real(dp), parameter :: my_pi = 3.141592653589793238462643383279502884197_dp GetRange(1,:) = (/ -my_pi, my_pi /) ! min & max parameter 1 GetRange(2,:) = (/ -my_pi, my_pi /) ! min & max parameter 2 GetRange(3,:) = (/ -my_pi, my_pi /) ! min & max parameter 3 end function GetRange function model_1d(paraset,x) implicit none real(dp), dimension(npara), intent(in) :: paraset ! parameter set real(dp), dimension(:), intent(in) :: x ! variables real(dp), dimension(size(x)) :: model_1d ! modeled output ! local variables real(dp), parameter :: my_b = 2.0_dp model_1d(:) = sin(paraset(1)) + x(:)*(sin(paraset(2)))**2 + my_b * paraset(3)**4 * sin(paraset(1)) end function model_1d function model_0d(paraset,x) implicit none real(dp), dimension(npara), intent(in) :: paraset ! parameter set real(dp), intent(in) :: x ! variables real(dp) :: model_0d ! modeled output ! local variables real(dp), parameter :: my_b = 2.0_dp model_0d = sin(paraset(1)) + x*(sin(paraset(2)))**2 + my_b * paraset(3)**4 * sin(paraset(1)) end function model_0d end Module mo_model

test/test_mo_sobol_index/mo_model.f90

module constants !================================================================== ! This module contains all the non-modifiable parameters and ! all quantities which never change throughout a simulation. !================================================================== !Import parameters: use parameters integer,parameter:: nxm1=nx-1, nym1=ny-1, nzm1=nz-1 !Generic double precision numerical constants: double precision,parameter:: zero=0.d0, one=1.d0 double precision,parameter:: two=2.d0, three=3.d0 double precision,parameter:: four=4.d0, six=6.d0 double precision,parameter:: f12=one/two, f13=one/three, f14=one/four double precision,parameter:: f16=one/six, f56=5.d0/six, f112=one/12.d0 double precision,parameter:: small=1.d-12, oms=one-small !--------------------------------------------------------------------- !Domain half widths and edge values: double precision,parameter:: hlx=ellx/two, hlxi=one/hlx, xmin=-hlx double precision,parameter:: hly=elly/two, hlyi=one/hly, ymin=-hly double precision,parameter:: zmin=-ellz/two, zmax=zmin+ellz !Grid lengths and their inverses: double precision,parameter:: dx=ellx/dble(nx), dxi=dble(nx)/(ellx*oms) double precision,parameter:: dy=elly/dble(ny), dyi=dble(ny)/(elly*oms) double precision,parameter:: dz=ellz/dble(nz), dzi=dble(nz)/(ellz*oms) !Grid cell volume: double precision,parameter:: vcell=dx*dy*dz !--------------------------------------------------------------------- !Number of grid cells: integer,parameter:: ncell=nx*ny*(nz+1) end module

merging_standalone/3d/constants.f90

module timeman implicit none CONTAINS ! print statements in this module use 1100-1200 !! time tracking funcs and subs subroutine initialize_t1 !sets t1, the beginning of a new repetative operation use timevars, only: t1 call cpu_time(t1) end subroutine initialize_t1 subroutine timeupdate( chtype,ndone,ntotal ) !uses t1 and new t2 to give update on time for new repetative operation use MCvars, only: numPartsperj use timevars, only: t1 integer :: ndone,ntotal, orda,ordm real(8) :: t2, ave,maxv,eps=0.0000000001d0 character(*) :: chtype call cpu_time(t2) if(chtype=='radMC' .or. chtype=='radWood' .or. chtype=='KLWood' .or. chtype=='GaussKL') then 1101 format(A9," ",f6.1,"% of ",i7," time/est:",f7.2,"/",f7.2," min h/r-ave/max: ",f3.1,"E",i1,"/",f3.1,"E",i1) ave = real(sum(numPartsperj),8)/ndone+eps orda= int(floor(log(ave)/log(10d0)*10.0)/10.0) maxv= real(maxval(numPartsperj),8)+eps ordm= int(floor(log(maxv)/log(10d0))) write(*,1101) chtype,real(ndone,8)/ntotal*100d0,ntotal,(t2-t1)/60.0d0,(t2-t1)*ntotal/ndone/60.0d0, & ave/(10.0**orda),orda,maxv/(10.0**ordm),ordm else 1100 format(A9," ",f6.1,"% of ",i7," time/est:",f7.2,"/",f7.2," min") write(*,1100) chtype,real(ndone,8)/ntotal*100d0,ntotal,(t2-t1)/60.0d0,(t2-t1)*ntotal/ndone/60.0d0 endif end subroutine end module timeman

mods/timeman.f90

Describe Western ScreechOwl here. There are several screech owls residing in Davis, The biggest and loudest so far appears to reside in East Davis near Poleline / Eighth (maybe he lives in cemetery) SKREEEEEEEEEEEEEEEEEE Daubert

lab/davisWiki/Western_Screech-Owl.f

subroutine Curve2Mask(dhgrid, n, sampling, profile, nprofile, NP, & centralmeridian, exitstatus) !------------------------------------------------------------------------------ ! ! Given a list of coordinates of a SINGLE CLOSED CURVE, this routine ! will fill the interior and exterior with 0s and 1s. The value at the ! north pole (either 0 or 1) is specified by the input parameter NP. ! ! Calling Parameters ! ! IN ! profile Latitude (:,1) and longitude (:,2) coordinates of a ! single close curve having dimension (nprofile, 2). ! nprofile Number of coordinates in the vector profile. ! np Value of the output function at the North Pole, which ! can be either 0 or 1. ! n Number of latitude bands in the output Driscoll and ! Healy sampled grid. ! sampling 1 sets the number of longitude bands equal to 1, ! whereas 2 sets the number to twice that of n. ! centralmeridian If 1, the curve is assumed to pass through the ! central meridian: passing from < 360 degrees ! to > 0 degrees. The curve makes a complete ! circle about the planet in longitude. default ! is zero. ! ! OUT ! dhgrid A Driscoll and Healy sampled grid specifiying whether ! the point is in the curve (1), or outside of it (0). ! ! OPTIONAL (OUT) ! exitstatus If present, instead of executing a STOP when an error ! is encountered, the variable exitstatus will be ! returned describing the error. ! 0 = No errors; ! 1 = Improper dimensions of input array; ! 2 = Improper bounds for input variable; ! 3 = Error allocating memory; ! 4 = File IO error. ! ! Copyright (c) 2005-2019, SHTOOLS ! All rights reserved. ! !------------------------------------------------------------------------------ use ftypes implicit none integer, intent(out) :: dhgrid(:,:) real(dp), intent(in) :: profile(:,:) integer, intent(in) :: n, sampling, nprofile, np integer, intent(in), optional :: centralmeridian integer, intent(out), optional :: exitstatus integer, parameter :: maxcross = 2000 integer :: i, j, k, k_loc, nlat, nlong, numcross, next, ind1, ind2, cm real(dp) :: lat_int, long_int, lon, cross(maxcross), cross_sort(maxcross) if (present(exitstatus)) exitstatus = 0 nlat = n lat_int = 180.0_dp / dble(nlat) dhgrid = 0 if (mod(n,2) /= 0) then print*, "Error --- Curve2Mask" print*, "N must be even" print*, "N = ", n if (present(exitstatus)) then exitstatus = 2 return else stop end if end if if (sampling == 1) then nlong = nlat long_int = 2.0_dp * lat_int else if (sampling == 2) then nlong = 2 * nlat long_int = lat_int else print*, "Error --- Curve2Mask" print*, "SAMPLING of DHGRID must be 1 (equally sampled) or 2 (equally spaced)." print*, "SAMPLING = ", sampling if (present(exitstatus)) then exitstatus = 2 return else stop end if end if if (NP /= 1 .and. NP /= 0) then print*, "Error --- Curve2Mask" print*, "NP must be 0 if the North pole is outside of curve," print*, "or 1 if the North pole is inside of the curve." print*, "NP = ", np if (present(exitstatus)) then exitstatus = 2 return else stop end if end if if (size(dhgrid(1,:)) < nlong .or. size(dhgrid(:,1)) < nlat ) then print*, "Error --- Curve2Mask" print*, "DHGRID must be dimensioned as (NLAT, NLONG)." print*, "NLAT = ", nlat print*, "NLONG = ", nlong print*, "Size of GRID = ", size(dhgrid(:,1)), size(dhgrid(1,:)) if (present(exitstatus)) then exitstatus = 1 return else stop end if end if if (size(profile(:,1)) < nprofile .or. size(profile(1,:)) < 2) then print*, "Error --- Curve2Mask" print*, "PROFILE must be dimensioned as (NPROFILE, 2)." print*, "Dimension of NPROFILE = ", size(profile(:,1)), & size(profile(1,:)) if (present(exitstatus)) then exitstatus = 1 return else stop end if end if if (present(centralmeridian)) then if (centralmeridian /= 0 .and. centralmeridian /= 1) then print*, "Error --- Curve2Mask" print*, "CENTRALMERIDIAN must be either 0 or 1." print*, "Input value is ", centralmeridian if (present(exitstatus)) then exitstatus = 2 return else stop end if end if cm = centralmeridian else cm = 0 end if !-------------------------------------------------------------------------- ! ! Start at 90N and 0E. Determine where the curve crosses this longitude ! band, sort the values, and then set the pixels between zero crossings ! to either 0 or 1. ! !-------------------------------------------------------------------------- do j = 1, nlong lon = dble(j-1) * long_int numcross = 0 do i = 1, nprofile - 1 if (profile(i,2) <= lon .and. profile(i+1,2) > lon) then numcross = numcross + 1 if (numcross > maxcross) then print*, "Error --- Curve2Mask" print*, "Internal variable MAXCROSS needs to be increased." print*, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(i,1) + (profile(i+1,1)-profile(i,1)) & / (profile(i+1,2)-profile(i,2)) & * (lon - profile(i,2)) else if (profile(i,2) > lon .and. profile(i+1,2) <= lon) then numcross = numcross + 1 if (numcross > maxcross) then print*, "Error --- Curve2Mask" print*, "Internal variable MAXCROSS needs to be increased." print*, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(i+1,1) + & (profile(i,1)-profile(i+1,1)) / & (profile(i,2)-profile(i+1,2)) & * (lon - profile(i+1,2)) end if end do ! do first and last points if (cm == 0) then if (profile(nprofile,2) <= lon .and. profile(1,2) > lon) then numcross = numcross + 1 if (numcross > maxcross) then print*, "Error --- Curve2Mask" print*, "Internal variable MAXCROSS needs to be increased." print*, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(nprofile,1) + & (profile(1,1)-profile(nprofile,1)) / & (profile(1,2)-profile(nprofile,2)) * & (lon - profile(nprofile,2)) else if (profile(nprofile,2) > lon .and. profile(1,2) <= lon) then numcross = numcross + 1 if (numcross > maxcross) then print*, "Error --- Curve2Mask" print*, "Internal variable MAXCROSS needs to be increased." print*, "MAXCROSS = ", maxcross if (present(exitstatus)) then exitstatus = 5 return else stop end if end if cross(numcross) = profile(1,1) + & (profile(nprofile,1)-profile(1,1)) / & (profile(nprofile,2)-profile(1,2)) & * (lon - profile(1,2)) end if end if if (numcross > 0) then ! sort crossings by decreasing latitude do k = 1, numcross k_loc = maxloc(cross(1:numcross), 1) cross_sort(k) = cross(k_loc) cross(k_loc) = -999.0_dp end do end if if (numcross == 0) then dhgrid(1:nlat, j) = np else if (numcross == 1) then ind1 = int( (90.0_dp - cross_sort(1)) / lat_int) + 1 dhgrid(1:ind1, j) = np if (ind1 == nlat) then cycle else if (np == 0) then dhgrid(ind1+1:nlat, j) = 1 else dhgrid(ind1+1:nlat, j) = 0 end if else ind1 = 1 next = np do k = 1, numcross ind2 = int( (90.0_dp - cross_sort(k)) / lat_int) + 1 if (ind2 >= ind1) dhgrid(ind1:ind2, j) = next if (next == 0) then next = 1 else next = 0 end if ind1 = ind2 + 1 end do if (ind1 <= nlat) dhgrid(ind1:nlat, j) = next end if end do end subroutine Curve2Mask

src/Curve2Mask.f95

C Copyright(C) 1999-2020 National Technology & Engineering Solutions C of Sandia, LLC (NTESS). Under the terms of Contract DE-NA0003525 with C NTESS, the U.S. Government retains certain rights in this software. C C See packages/seacas/LICENSE for details C======================================================================= SUBROUTINE SMOGS2 (xscr, yscr, isbnd, x, y, numel, $ link, nlink, numnp, nscr) C======================================================================= C*********************************************************************** C SUBROUTINE SMOGS = MESH SMOOTHING BY LAPLACE-S USING GAUSS-SEIDEL C*********************************************************************** real x(*), y(*), xscr(*), yscr(*) integer numel, nlink, link(nlink, *) logical isbnd(*) integer nscr(*) if (nlink .ne. 4) return do 20 iel = 1, numel n1 = link(1, iel) n2 = link(2, iel) n3 = link(3, iel) n4 = link(4, iel) if (.not. isbnd(n1)) then xscr(n1) = xscr(n1) + x(n2) + x(n4) yscr(n1) = yscr(n1) + y(n2) + y(n4) nscr(n1) = nscr(n1) + 2 end if if (.not. isbnd(n2)) then xscr(n2) = xscr(n2) + x(n1) + x(n3) yscr(n2) = yscr(n2) + y(n1) + y(n3) nscr(n2) = nscr(n2) + 2 end if if (.not. isbnd(n3)) then xscr(n3) = xscr(n3) + x(n2) + x(n4) yscr(n3) = yscr(n3) + y(n2) + y(n4) nscr(n3) = nscr(n3) + 2 end if if (.not. isbnd(n4)) then xscr(n4) = xscr(n4) + x(n1) + x(n3) yscr(n4) = yscr(n4) + y(n1) + y(n3) nscr(n4) = nscr(n4) + 2 end if 20 continue return end

packages/seacas/applications/grepos/gp_smogs2.f

! Program to test the stack variable size limit. program stack call sub1 call sub2 (1) contains ! Local variables larger than 32768 in byte size shall be placed in static ! storage area, while others be put on stack by default. subroutine sub1 real a, b(32768/4), c(32768/4+1) integer m, n(1024,4), k(1024,1024) a = 10.0 b = 20.0 c = 30.0 m = 10 n = 20 k = 30 if ((a .ne. 10.0).or.(b(1) .ne. 20.0).or.(c(1) .ne. 30.0)) call abort if ((m .ne. 10).or.(n(256,4) .ne. 20).or.(k(1,1024) .ne. 30)) call abort end subroutine ! Local variables defined in recursive subroutine are always put on stack. recursive subroutine sub2 (n) real a (32769) a (1) = 42 if (n .ge. 1) call sub2 (n-1) if (a(1) .ne. 42) call abort a (1) = 0 end subroutine end

gcc-gcc-7_3_0-release/gcc/testsuite/gfortran.fortran-torture/execute/stack_varsize.f90

subroutine many_args(a0, a1, a2, a3, a4, a5, a6, a7, a8, a9, a20, a21, a22,& a23, a24, a25, a26, a27, a28, a29, a30, a31, a32, a33, a34, a35, a36, a37,& a38, a39, a40, a41, a42, a43, a44, a45, a46, a47, a48, a49) implicit none integer, intent(in) :: a0, a1, a2, a3, a4, a5, a6, a7, a8, a9, a20, a21, a22,& a23, a24, a25, a26, a27, a28, a29, a30, a31, a32, a33, a34, a35, a36, a37,& a38, a39, a40, a41, a42, a43, a44, a45, a46, a47, a48, a49 end subroutine many_args

tests/compile/many_args.f90

* * $Id$ * *====================================================================== * * DISCLAIMER * * This material was prepared as an account of work sponsored by an * agency of the United States Government. Neither the United States * Government nor the United States Department of Energy, nor Battelle, * nor any of their employees, MAKES ANY WARRANTY, EXPRESS OR IMPLIED, OR * ASSUMES ANY LEGAL LIABILITY OR RESPONSIBILITY FOR THE ACCURACY, * COMPLETENESS, OR USEFULNESS OF ANY INFORMATION, APPARATUS, PRODUCT, * SOFTWARE, OR PROCESS DISCLOSED, OR REPRESENTS THAT ITS USE WOULD NOT * INFRINGE PRIVATELY OWNED RIGHTS. * * ACKNOWLEDGMENT * * This software and its documentation were produced with Government * support under Contract Number DE-AC06-76RLO-1830 awarded by the United * States Department of Energy. The Government retains a paid-up * non-exclusive, irrevocable worldwide license to reproduce, prepare * derivative works, perform publicly and display publicly by or for the * Government, including the right to distribute to other Government * contractors. * *====================================================================== * * -- PEIGS routine (version 2.1) -- * Pacific Northwest Laboratory * July 28, 1995 * *====================================================================== real function samax(n,dx,incx) c c returns the max of the absolute values. real dx(*),dtemp integer i,incx,n,nincx c samax = 0.0 dtemp = 0.0 if( n.le.0 .or. incx.le.0 )return if(incx.ne.1) then c c code for increment not equal to 1 c nincx = n*incx do 10 i = 1,nincx,incx dtemp = max( dtemp, abs(dx(i)) ) 10 continue else c code for increment equal to 1 c do 20 i = 1, n dtemp = max( dtemp, abs(dx(i)) ) 20 continue endif samax = dtemp return end

src/peigs/src/f77/samax.f

c======================================================================= c c subroutine EMPCOVEXP c c Empirical Exponentially Weighted Covariance matrix and mean c c n c --- c cov(i,j) = (1 - L) \ L^(k-1)*[X(k,i) - rho(i)] * [X(k,j) - rho(j)] c / c --- c k=1 c c----------------------------------------------------------------------- SUBROUTINE empcovexp ( n, p, lambda, X, rho, XR, cov, info ) c----------------------------------------------------------------------- c c INPUT c n : number of value(s) (n > 1) integer c p : number of asset(s) (p >= 1) integer c lambda: exponetial parameter integer c X : matrix of values (n*p) double c rho : mean vector (n) double c c OUTPUT c XR : relative [X(.,j) - rho(j)] (n*p) double c cov : empirical covariance matrix (p*p) double c info : diagnostic argument integer c c CALL c cove : covariance matrix from centred values : X - E(X) c (input matrix n*m, result : full symetric matrix m*m) c c----------------------------------------------------------------------- c IMPLICIT NONE c c arguments i/o INTEGER n, p, info DOUBLE PRECISION lambda, X(n,*), rho(*), cov(p,*), XR(n,*) c c local variables INTEGER i, j DOUBLE PRECISION mean c c external subroutines EXTERNAL cove c c----------------------------------------------------------------------- c c initialization info = 0 c c relative return(s) DO j = 1,p mean = rho(j) DO i = 1,n XR(i, j) = X(i,j) - mean ENDDO ENDDO c c computation of sum on k of XR(k,i) * XR(k,j) CALL cove ( n, p, XR, lambda, cov, info ) c RETURN END

src/math/analysis/cov/empcovexp.f

! { dg-do compile } ! { dg-options "-std=f95" } ! Test for PROCEDURE statements with the -std=f95 flag. ! Contributed by Janus Weil <[email protected]> program p procedure():: proc ! { dg-error "Fortran 2003: PROCEDURE statement" } end program

validation_tests/llvm/f18/gfortran.dg/proc_decl_4.f90

! chk_protected.f90 ! Check: does the compiler support the PROTECTED attribute? ! module protected_var implicit none integer, protected :: readonly = 123 end module protected_var program chk_protected use protected_var implicit none write( *, '(a,i0)' ) 'Value of the protected variable: ', readonly write( *, '(a,i0)' ) 'Expected value: ', 123 write( *, '(a)' ) '(This only confirms syntactical support for the attribute)' end program chk_protected

chkfeatures/chk_protected.f90

program MC_ex01_p04 use mc_randoms implicit none real(rk)::a real(rk),allocatable::p_lcg(:,:),p_pm(:,:),p_mt(:,:) integer::i !Initialize call seed_lcg(int(15,ik)) call seed_pm(int(7895,ik)) call init_genrand64(int(431,ik)) allocate(p_lcg(100,2),p_pm(100,2),p_mt(100,2)) !100 points do i=1, 100 p_lcg(i,1)=rand_lcg() p_lcg(i,2)=rand_lcg() p_pm(i,1)=rand_pm() p_pm(i,2)=rand_pm() p_mt(i,1)=genrand64_real3() p_mt(i,2)=genrand64_real3() end do !Adjust the interval p_lcg=p_lcg*2-1 p_pm=p_pm*2-1 p_mt=p_mt*2-1 !Save the data !LCG open(1,action="write",file="data_lcg100.txt",status="replace") do i=1,100 write(1,*) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm100.txt",status="replace") do i=1,100 write(1,*) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt100.txt",status="replace") do i=1,100 write(1,*) p_mt(i,1), p_mt(i,2) end do close(1) deallocate(p_lcg,p_pm,p_mt) !Data for 10000 points allocate(p_lcg(10000,2),p_pm(10000,2),p_mt(10000,2)) !10000points do i=1, 10000 p_lcg(i,1)=rand_lcg() p_lcg(i,2)=rand_lcg() p_pm(i,1)=rand_pm() p_pm(i,2)=rand_pm() p_mt(i,1)=genrand64_real3() p_mt(i,2)=genrand64_real3() end do !Adjust the interval p_lcg=p_lcg*2-1 p_pm=p_pm*2-1 p_mt=p_mt*2-1 !Save the data !LCG open(1,action="write",file="data_lcg10000.txt",status="replace") do i=1,10000 write(1,*) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm10000.txt",status="replace") do i=1,10000 write(1,*) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt10000.txt",status="replace") do i=1,10000 write(1,*) p_mt(i,1), p_mt(i,2) end do close(1) !Region [-0.01,0.01] Seed 1 !LCG i=1 do if(i>1000) exit a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,1)=a do a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,2)=a exit end if end do i=i+1 end if end do !PM i=1 do if(i>1000) exit a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,1)=a do a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,2)=a exit end if end do i=i+1 end if end do !MT i=1 do if(i>1000) exit a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,1)=a do a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,2)=a exit end if end do i=i+1 end if end do !Save the data !LCG open(1,action="write",file="data_lcg_region1.txt",status="replace") do i=1,1000 write(1,*) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm_region1.txt",status="replace") do i=1,1000 write(1,*) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt_region1.txt",status="replace") do i=1,1000 write(1,*) p_mt(i,1), p_mt(i,2) end do close(1) !Region [-0.01,0.01] Seed 2 call seed_lcg(int(8239,ik)) call seed_pm(int(46,ik)) call init_genrand64(int(20010,ik)) !LCG i=1 do if(i>1000) exit a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,1)=a do a=rand_lcg() if(a<=0.01.and.a>=-0.01) then p_lcg(i,2)=a exit end if end do i=i+1 end if end do !PM i=1 do if(i>1000) exit a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,1)=a do a=rand_pm() if(a<=0.01.and.a>=-0.01) then p_pm(i,2)=a exit end if end do i=i+1 end if end do !MT i=1 do if(i>1000) exit a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,1)=a do a=genrand64_real3() if(a<=0.01.and.a>=-0.01) then p_mt(i,2)=a exit end if end do i=i+1 end if end do !Save the data !LCG open(1,action="write",file="data_lcg_region2.txt",status="replace") do i=1,1000 write(1,*) p_lcg(i,1), p_lcg(i,2) end do close(1) !PM open(1,action="write",file="data_pm_region2.txt",status="replace") do i=1,1000 write(1,*) p_pm(i,1), p_pm(i,2) end do close(1) !MT open(1,action="write",file="data_mt_region2.txt",status="replace") do i=1,1000 write(1,*) p_mt(i,1), p_mt(i,2) end do close(1) end program MC_ex01_p04

Nico_Toikka_ex1/p04/points/ex04.f95

PROGRAM FM821 C***********************************************************************00010821 C***** FORTRAN 77 00020821 C***** FM821 00030821 C***** YDCOS - (190) 00040821 C***** 00050821 C***********************************************************************00060821 C***** GENERAL PURPOSE ANS REF 00070821 C***** TEST INTRINSIC FUNCTION DCOS 15.3 00080821 C***** TABLE 5 00090821 C***** 00100821 CBB** ********************** BBCCOMNT **********************************00110821 C**** 00120821 C**** 1978 FORTRAN COMPILER VALIDATION SYSTEM 00130821 C**** VERSION 2.1 00140821 C**** 00150821 C**** 00160821 C**** SUGGESTIONS AND COMMENTS SHOULD BE FORWARDED TO 00170821 C**** NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY 00180821 C**** SOFTWARE STANDARDS VALIDATION GROUP 00190821 C**** BUILDING 225 RM A266 00200821 C**** GAITHERSBURG, MD 20899 00210821 C**** 00220821 C**** 00230821 C**** 00240821 CBE** ********************** BBCCOMNT **********************************00250821 C***** 00260821 C***** S P E C I F I C A T I O N S SEGMENT 190 00270821 DOUBLE PRECISION AVD, BVD, PIVD, DVCORR 00280821 C***** 00290821 CBB** ********************** BBCINITA **********************************00300821 C**** SPECIFICATION STATEMENTS 00310821 C**** 00320821 CHARACTER ZVERS*13, ZVERSD*17, ZDATE*17, ZPROG*5, ZCOMPL*20, 00330821 1 ZNAME*20, ZTAPE*10, ZPROJ*13, REMRKS*31, ZTAPED*13 00340821 CBE** ********************** BBCINITA **********************************00350821 CBB** ********************** BBCINITB **********************************00360821 C**** INITIALIZE SECTION 00370821 DATA ZVERS, ZVERSD, ZDATE 00380821 1 /'VERSION 2.1 ', '93/10/21*21.02.00', '*NO DATE*TIME'/ 00390821 DATA ZCOMPL, ZNAME, ZTAPE 00400821 1 /'*NONE SPECIFIED*', '*NO COMPANY NAME*', '*NO TAPE*'/ 00410821 DATA ZPROJ, ZTAPED, ZPROG 00420821 1 /'*NO PROJECT*', '*NO TAPE DATE', 'XXXXX'/ 00430821 DATA REMRKS /' '/ 00440821 C**** THE FOLLOWING 9 COMMENT LINES (CZ01, CZ02, ...) CAN BE REPLACED 00450821 C**** FOR IDENTIFYING THE TEST ENVIRONMENT 00460821 C**** 00470821 CZ01 ZVERS = 'VERSION OF THE COMPILER VALIDATION SYSTEM' 00480821 CZ02 ZVERSD = 'CREATION DATE/TIME OF THE COMPILER VALIDATION SYSTEM' 00490821 CZ03 ZPROG = 'PROGRAM NAME' 00500821 CZ04 ZDATE = 'DATE OF TEST' 00510821 CZ05 ZCOMPL = 'COMPILER IDENTIFICATION' 00520821 CZ06 ZPROJ = 'PROJECT NUMBER/IDENTIFICATION' 00530821 CZ07 ZNAME = 'NAME OF USER' 00540821 CZ08 ZTAPE = 'TAPE OWNER/ID' 00550821 CZ09 ZTAPED = 'DATE TAPE COPIED' 00560821 C 00570821 IVPASS = 0 00580821 IVFAIL = 0 00590821 IVDELE = 0 00600821 IVINSP = 0 00610821 IVTOTL = 0 00620821 IVTOTN = 0 00630821 ICZERO = 0 00640821 C 00650821 C I01 CONTAINS THE LOGICAL UNIT NUMBER FOR THE CARD READER. 00660821 I01 = 05 00670821 C I02 CONTAINS THE LOGICAL UNIT NUMBER FOR THE PRINTER. 00680821 I02 = 06 00690821 C 00700821 CX010 REPLACED BY FEXEC X-010 CONTROL CARD (CARD-READER UNIT NUMBER). 00710821 C THE CX010 CARD IS FOR OVERRIDING THE PROGRAM DEFAULT I01 = 5 00720821 CX011 REPLACED BY FEXEC X-011 CONTROL CARD. CX011 IS FOR SYSTEMS 00730821 C REQUIRING ADDITIONAL STATEMENTS FOR FILES ASSOCIATED WITH CX010. 00740821 C 00750821 CX020 REPLACED BY FEXEC X-020 CONTROL CARD (PRINTER UNIT NUMBER). 00760821 C THE CX020 CARD IS FOR OVERRIDING THE PROGRAM DEFAULT I02= 6 00770821 CX021 REPLACED BY FEXEC X-021 CONTROL CARD. CX021 IS FOR SYSTEMS 00780821 C REQUIRING ADDITIONAL STATEMENTS FOR FILES ASSOCIATED WITH CX020. 00790821 C 00800821 CBE** ********************** BBCINITB **********************************00810821 NUVI = I02 00820821 IVTOTL = 19 00830821 ZPROG = 'FM821' 00840821 CBB** ********************** BBCHED0A **********************************00850821 C**** 00860821 C**** WRITE REPORT TITLE 00870821 C**** 00880821 WRITE (I02, 90002) 00890821 WRITE (I02, 90006) 00900821 WRITE (I02, 90007) 00910821 WRITE (I02, 90008) ZVERS, ZVERSD 00920821 WRITE (I02, 90009) ZPROG, ZPROG 00930821 WRITE (I02, 90010) ZDATE, ZCOMPL 00940821 CBE** ********************** BBCHED0A **********************************00950821 C***** 00960821 C***** HEADER FOR SEGMENT 190 00970821 WRITE(NUVI,19000) 00980821 19000 FORMAT(" "/" YDCOS - (190) INTRINSIC FUNCTIONS" // 00990821 1 " DCOS (DOUBLE PRECISION COSINE)" // 01000821 2 " ANS REF. - 15.3" ) 01010821 CBB** ********************** BBCHED0B **********************************01020821 C**** WRITE DETAIL REPORT HEADERS 01030821 C**** 01040821 WRITE (I02,90004) 01050821 WRITE (I02,90004) 01060821 WRITE (I02,90013) 01070821 WRITE (I02,90014) 01080821 WRITE (I02,90015) IVTOTL 01090821 CBE** ********************** BBCHED0B **********************************01100821 C***** 01110821 PIVD = 3.1415926535897932384626434D0 01120821 C***** 01130821 CT001* TEST 1 ZERO (0.0), SINCE COS(0)=1 01140821 IVTNUM = 1 01150821 BVD = 0.0D0 01160821 AVD = DCOS(BVD) 01170821 IF (AVD - 0.9999999995D+00) 20010, 10010, 40010 01180821 40010 IF (AVD - 0.1000000001D+01) 10010, 10010, 20010 01190821 10010 IVPASS = IVPASS + 1 01200821 WRITE (NUVI, 80002) IVTNUM 01210821 GO TO 0011 01220821 20010 IVFAIL = IVFAIL + 1 01230821 DVCORR = 1.00000000000000000000D+00 01240821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01250821 0011 CONTINUE 01260821 CT002* TEST 2 VALUES NEAR PI 01270821 IVTNUM = 2 01280821 AVD = DCOS(PIVD) 01290821 IF (AVD + 0.1000000001D+01) 20020, 10020, 40020 01300821 40020 IF (AVD + 0.9999999995D+00) 10020, 10020, 20020 01310821 10020 IVPASS = IVPASS + 1 01320821 WRITE (NUVI, 80002) IVTNUM 01330821 GO TO 0021 01340821 20020 IVFAIL = IVFAIL + 1 01350821 DVCORR = -1.00000000000000000000D+00 01360821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01370821 0021 CONTINUE 01380821 CT003* TEST 3 PI - 1/16 01390821 IVTNUM = 3 01400821 BVD = 3.07909265358979323846D0 01410821 AVD = DCOS(BVD) 01420821 IF (AVD + 0.9980475112D+00) 20030, 10030, 40030 01430821 40030 IF (AVD + 0.9980475102D+00) 10030, 10030, 20030 01440821 10030 IVPASS = IVPASS + 1 01450821 WRITE (NUVI, 80002) IVTNUM 01460821 GO TO 0031 01470821 20030 IVFAIL = IVFAIL + 1 01480821 DVCORR = -0.99804751070009914963D+00 01490821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01500821 0031 CONTINUE 01510821 CT004* TEST 4 PI + 1/32 01520821 IVTNUM = 4 01530821 AVD = DCOS(3.17284265358979323846D0) 01540821 IF (AVD + 0.9995117590D+00) 20040, 10040, 40040 01550821 40040 IF (AVD + 0.9995117580D+00) 10040, 10040, 20040 01560821 10040 IVPASS = IVPASS + 1 01570821 WRITE (NUVI, 80002) IVTNUM 01580821 GO TO 0041 01590821 20040 IVFAIL = IVFAIL + 1 01600821 DVCORR = -0.99951175848513636924D+00 01610821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01620821 0041 CONTINUE 01630821 CT005* TEST 5 VALUES NEAR 2*PI 01640821 IVTNUM = 5 01650821 BVD = PIVD * 2.0D0 01660821 AVD = DCOS(BVD) 01670821 IF (AVD - 0.9999999995D+00) 20050, 10050, 40050 01680821 40050 IF (AVD - 0.1000000001D+01) 10050, 10050, 20050 01690821 10050 IVPASS = IVPASS + 1 01700821 WRITE (NUVI, 80002) IVTNUM 01710821 GO TO 0051 01720821 20050 IVFAIL = IVFAIL + 1 01730821 DVCORR = 1.00000000000000000000D+00 01740821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01750821 0051 CONTINUE 01760821 CT006* TEST 6 VALUES NEAR 2*PI 01770821 IVTNUM = 6 01780821 BVD = (2.0D0 * PIVD) - 1.0D0 / 64.0D0 01790821 AVD = DCOS(BVD) 01800821 IF (AVD - 0.9998779316D+00) 20060, 10060, 40060 01810821 40060 IF (AVD - 0.9998779327D+00) 10060, 10060, 20060 01820821 10060 IVPASS = IVPASS + 1 01830821 WRITE (NUVI, 80002) IVTNUM 01840821 GO TO 0061 01850821 20060 IVFAIL = IVFAIL + 1 01860821 DVCORR = 0.99987793217100665474D+00 01870821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 01880821 0061 CONTINUE 01890821 CT007* TEST 7 VALUES NEAR 2*PI 01900821 IVTNUM = 7 01910821 BVD = (2.0D0 * PIVD) + 1.0D0 / 128.0D0 01920821 AVD = DCOS(BVD) 01930821 IF (AVD - 0.9999694820D+00) 20070, 10070, 40070 01940821 40070 IF (AVD - 0.9999694831D+00) 10070, 10070, 20070 01950821 10070 IVPASS = IVPASS + 1 01960821 WRITE (NUVI, 80002) IVTNUM 01970821 GO TO 0071 01980821 20070 IVFAIL = IVFAIL + 1 01990821 DVCORR = 0.99996948257709511331D+00 02000821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02010821 0071 CONTINUE 02020821 CT008* TEST 8 AN EXPRESSION PRESENTED TO DCOS 02030821 IVTNUM = 8 02040821 BVD = 350.0D1 02050821 AVD = DCOS(BVD / 100.0D1) 02060821 IF (AVD + 0.9364566878D+00) 20080, 10080, 40080 02070821 40080 IF (AVD + 0.9364566868D+00) 10080, 10080, 20080 02080821 10080 IVPASS = IVPASS + 1 02090821 WRITE (NUVI, 80002) IVTNUM 02100821 GO TO 0081 02110821 20080 IVFAIL = IVFAIL + 1 02120821 DVCORR = -0.93645668729079633770D+00 02130821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02140821 0081 CONTINUE 02150821 CT009* TEST 9 A NEGATIVE ARGUMENT 02160821 IVTNUM = 9 02170821 BVD = -1.5D0 02180821 AVD = DCOS(BVD) 02190821 IF (AVD - 0.7073720163D-01) 20090, 10090, 40090 02200821 40090 IF (AVD - 0.7073720171D-01) 10090, 10090, 20090 02210821 10090 IVPASS = IVPASS + 1 02220821 WRITE (NUVI, 80002) IVTNUM 02230821 GO TO 0091 02240821 20090 IVFAIL = IVFAIL + 1 02250821 DVCORR = 0.070737201667702910088D+00 02260821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02270821 0091 CONTINUE 02280821 CT010* TEST 10 LARGE VALUES TO CHECK ARGUMENT REDUCTION 02290821 IVTNUM = 10 02300821 AVD = DCOS(200.0D0) 02310821 IF (AVD - 0.4871876747D+00) 20100, 10100, 40100 02320821 40100 IF (AVD - 0.4871876753D+00) 10100, 10100, 20100 02330821 10100 IVPASS = IVPASS + 1 02340821 WRITE (NUVI, 80002) IVTNUM 02350821 GO TO 0101 02360821 20100 IVFAIL = IVFAIL + 1 02370821 DVCORR = 0.48718767500700591035D+00 02380821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02390821 0101 CONTINUE 02400821 CT011* TEST 11 LARGE VALUES TO CHECK ARGUMENT REDUCTION 02410821 IVTNUM = 11 02420821 AVD = DCOS(-31416.0D0) 02430821 IF (AVD - 0.9973027257D+00) 20110, 10110, 40110 02440821 40110 IF (AVD - 0.9973027268D+00) 10110, 10110, 20110 02450821 10110 IVPASS = IVPASS + 1 02460821 WRITE (NUVI, 80002) IVTNUM 02470821 GO TO 0111 02480821 20110 IVFAIL = IVFAIL + 1 02490821 DVCORR = 0.99730272627420107808D+00 02500821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02510821 0111 CONTINUE 02520821 CT012* TEST 12 VALUES NEAR PI/2 02530821 IVTNUM = 12 02540821 AVD = DCOS(1.57079632679489661923D0) 02550821 IF (AVD + 0.5000000000D-09) 20120, 10120, 40120 02560821 40120 IF (AVD - 0.5000000000D-09) 10120, 10120, 20120 02570821 10120 IVPASS = IVPASS + 1 02580821 WRITE (NUVI, 80002) IVTNUM 02590821 GO TO 0121 02600821 20120 IVFAIL = IVFAIL + 1 02610821 DVCORR = 0.00000000000000000000D+00 02620821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02630821 0121 CONTINUE 02640821 CT013* TEST 13 (PI / 2) - 1/32 02650821 IVTNUM = 13 02660821 BVD = (1.53954632679489661923D0) 02670821 AVD = DCOS(BVD) 02680821 IF (AVD - 0.3124491397D-01) 20130, 10130, 40130 02690821 40130 IF (AVD - 0.3124491400D-01) 10130, 10130, 20130 02700821 10130 IVPASS = IVPASS + 1 02710821 WRITE (NUVI, 80002) IVTNUM 02720821 GO TO 0131 02730821 20130 IVFAIL = IVFAIL + 1 02740821 DVCORR = 0.031244913985326078739D+00 02750821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02760821 0131 CONTINUE 02770821 CT014* TEST 14 (PI / 2) + 1/16 02780821 IVTNUM = 14 02790821 AVD = DCOS(1.63329632679489661923D0) 02800821 IF (AVD + 0.6245931788D-01) 20140, 10140, 40140 02810821 40140 IF (AVD + 0.6245931781D-01) 10140, 10140, 20140 02820821 10140 IVPASS = IVPASS + 1 02830821 WRITE (NUVI, 80002) IVTNUM 02840821 GO TO 0141 02850821 20140 IVFAIL = IVFAIL + 1 02860821 DVCORR = -0.062459317842380198585D+00 02870821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 02880821 0141 CONTINUE 02890821 CT015* TEST 15 VALUES NEAR 3*PI/2 02900821 IVTNUM = 15 02910821 BVD = 3.0D0 * PIVD / 2.0D0 02920821 AVD = DCOS(BVD) 02930821 IF (AVD + 0.5000000000D-09) 20150, 10150, 40150 02940821 40150 IF (AVD - 0.5000000000D-09) 10150, 10150, 20150 02950821 10150 IVPASS = IVPASS + 1 02960821 WRITE (NUVI, 80002) IVTNUM 02970821 GO TO 0151 02980821 20150 IVFAIL = IVFAIL + 1 02990821 DVCORR = 0.00000000000000000000D+00 03000821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03010821 0151 CONTINUE 03020821 CT016* TEST 16 VALUES NEAR 3*PI/2 03030821 IVTNUM = 16 03040821 BVD = (3.0D0 * PIVD / 2.0D0) + 1.0D0 / 16.0D0 03050821 AVD = DCOS(BVD) 03060821 IF (AVD - 0.6245931781D-01) 20160, 10160, 40160 03070821 40160 IF (AVD - 0.6245931788D-01) 10160, 10160, 20160 03080821 10160 IVPASS = IVPASS + 1 03090821 WRITE (NUVI, 80002) IVTNUM 03100821 GO TO 0161 03110821 20160 IVFAIL = IVFAIL + 1 03120821 DVCORR = 0.062459317842380198585D+00 03130821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03140821 0161 CONTINUE 03150821 CT017* TEST 17 VALUES NEAR 3*PI/2 03160821 IVTNUM = 17 03170821 BVD = (3.0D0 * PIVD / 2.0D0) - 1.0D0 / 512.0D0 03180821 AVD = DCOS(BVD) 03190821 IF (AVD + 0.1953123760D-02) 20170, 10170, 40170 03200821 40170 IF (AVD + 0.1953123757D-02) 10170, 10170, 20170 03210821 10170 IVPASS = IVPASS + 1 03220821 WRITE (NUVI, 80002) IVTNUM 03230821 GO TO 0171 03240821 20170 IVFAIL = IVFAIL + 1 03250821 DVCORR = -0.0019531237582368040269D+00 03260821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03270821 0171 CONTINUE 03280821 CT018* TEST 18 ARGUMENT OF LOW MAGNITUDE 03290821 IVTNUM = 18 03300821 BVD = -3.1415926535898D-35 03310821 AVD = DCOS(BVD) 03320821 IF (AVD - 0.9999999995D+00) 20180, 10180, 40180 03330821 40180 IF (AVD - 0.1000000001D+01) 10180, 10180, 20180 03340821 10180 IVPASS = IVPASS + 1 03350821 WRITE (NUVI, 80002) IVTNUM 03360821 GO TO 0181 03370821 20180 IVFAIL = IVFAIL + 1 03380821 DVCORR = 1.00000000000000000000D+00 03390821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03400821 0181 CONTINUE 03410821 CT019* TEST 19 THE FUNCTION APPLIED TWICE 03420821 IVTNUM = 19 03430821 AVD = DCOS(PIVD / 4.0D0) * DCOS(3.0D0 * PIVD / 4.0D0) 03440821 IF (AVD + 0.5000000003D+00) 20190, 10190, 40190 03450821 40190 IF (AVD + 0.4999999997D+00) 10190, 10190, 20190 03460821 10190 IVPASS = IVPASS + 1 03470821 WRITE (NUVI, 80002) IVTNUM 03480821 GO TO 0191 03490821 20190 IVFAIL = IVFAIL + 1 03500821 DVCORR = -0.5000000000000000000000D+00 03510821 WRITE (NUVI, 80031) IVTNUM, AVD, DVCORR 03520821 0191 CONTINUE 03530821 C***** 03540821 CBB** ********************** BBCSUM0 **********************************03550821 C**** WRITE OUT TEST SUMMARY 03560821 C**** 03570821 IVTOTN = IVPASS + IVFAIL + IVDELE + IVINSP 03580821 WRITE (I02, 90004) 03590821 WRITE (I02, 90014) 03600821 WRITE (I02, 90004) 03610821 WRITE (I02, 90020) IVPASS 03620821 WRITE (I02, 90022) IVFAIL 03630821 WRITE (I02, 90024) IVDELE 03640821 WRITE (I02, 90026) IVINSP 03650821 WRITE (I02, 90028) IVTOTN, IVTOTL 03660821 CBE** ********************** BBCSUM0 **********************************03670821 CBB** ********************** BBCFOOT0 **********************************03680821 C**** WRITE OUT REPORT FOOTINGS 03690821 C**** 03700821 WRITE (I02,90016) ZPROG, ZPROG 03710821 WRITE (I02,90018) ZPROJ, ZNAME, ZTAPE, ZTAPED 03720821 WRITE (I02,90019) 03730821 CBE** ********************** BBCFOOT0 **********************************03740821 CBB** ********************** BBCFMT0A **********************************03750821 C**** FORMATS FOR TEST DETAIL LINES 03760821 C**** 03770821 80000 FORMAT (" ",2X,I3,4X,"DELETED",32X,A31) 03780821 80002 FORMAT (" ",2X,I3,4X," PASS ",32X,A31) 03790821 80004 FORMAT (" ",2X,I3,4X,"INSPECT",32X,A31) 03800821 80008 FORMAT (" ",2X,I3,4X," FAIL ",32X,A31) 03810821 80010 FORMAT (" ",2X,I3,4X," FAIL ",/," ",15X,"COMPUTED= " , 03820821 1I6,/," ",15X,"CORRECT= " ,I6) 03830821 80012 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 03840821 1E12.5,/," ",16X,"CORRECT= " ,E12.5) 03850821 80018 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 03860821 1A21,/," ",16X,"CORRECT= " ,A21) 03870821 80020 FORMAT (" ",16X,"COMPUTED= " ,A21,1X,A31) 03880821 80022 FORMAT (" ",16X,"CORRECT= " ,A21,1X,A31) 03890821 80024 FORMAT (" ",16X,"COMPUTED= " ,I6,16X,A31) 03900821 80026 FORMAT (" ",16X,"CORRECT= " ,I6,16X,A31) 03910821 80028 FORMAT (" ",16X,"COMPUTED= " ,E12.5,10X,A31) 03920821 80030 FORMAT (" ",16X,"CORRECT= " ,E12.5,10X,A31) 03930821 80050 FORMAT (" ",48X,A31) 03940821 CBE** ********************** BBCFMT0A **********************************03950821 CBB** ********************** BBCFMAT1 **********************************03960821 C**** FORMATS FOR TEST DETAIL LINES - FULL LANGUAGE 03970821 C**** 03980821 80031 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 03990821 1D17.10,/," ",16X,"CORRECT= " ,D17.10) 04000821 80033 FORMAT (" ",16X,"COMPUTED= " ,D17.10,10X,A31) 04010821 80035 FORMAT (" ",16X,"CORRECT= " ,D17.10,10X,A31) 04020821 80037 FORMAT (" ",16X,"COMPUTED= " ,"(",E12.5,", ",E12.5,")",6X,A31) 04030821 80039 FORMAT (" ",16X,"CORRECT= " ,"(",E12.5,", ",E12.5,")",6X,A31) 04040821 80041 FORMAT (" ",16X,"COMPUTED= " ,"(",F12.5,", ",F12.5,")",6X,A31) 04050821 80043 FORMAT (" ",16X,"CORRECT= " ,"(",F12.5,", ",F12.5,")",6X,A31) 04060821 80045 FORMAT (" ",2X,I3,4X," FAIL ",/," ",16X,"COMPUTED= " , 04070821 1"(",F12.5,", ",F12.5,")"/," ",16X,"CORRECT= " , 04080821 2"(",F12.5,", ",F12.5,")") 04090821 CBE** ********************** BBCFMAT1 **********************************04100821 CBB** ********************** BBCFMT0B **********************************04110821 C**** FORMAT STATEMENTS FOR PAGE HEADERS 04120821 C**** 04130821 90002 FORMAT ("1") 04140821 90004 FORMAT (" ") 04150821 90006 FORMAT (" ",20X,"NATIONAL INSTITUTE OF STANDARDS AND TECHNOLOGY" )04160821 90007 FORMAT (" ",19X,"FORTRAN COMPILER VALIDATION SYSTEM" ) 04170821 90008 FORMAT (" ",21X,A13,A17) 04180821 90009 FORMAT (" ",/," *",A5,"BEGIN*",12X,"TEST RESULTS - " ,A5,/) 04190821 90010 FORMAT (" ",8X,"TEST DATE*TIME= " ,A17," - COMPILER= " ,A20) 04200821 90013 FORMAT (" "," TEST ","PASS/FAIL " ,6X,"DISPLAYED RESULTS" , 04210821 1 7X,"REMARKS",24X) 04220821 90014 FORMAT (" ","----------------------------------------------" , 04230821 1 "---------------------------------" ) 04240821 90015 FORMAT (" ",48X,"THIS PROGRAM HAS " ,I3," TESTS",/) 04250821 C**** 04260821 C**** FORMAT STATEMENTS FOR REPORT FOOTINGS 04270821 C**** 04280821 90016 FORMAT (" ",/," *",A5,"END*",14X,"END OF TEST - " ,A5,/) 04290821 90018 FORMAT (" ",A13,13X,A20," * ",A10,"/", 04300821 1 A13) 04310821 90019 FORMAT (" ","FOR OFFICIAL USE ONLY " ,35X,"COPYRIGHT 1982" ) 04320821 C**** 04330821 C**** FORMAT STATEMENTS FOR RUN SUMMARY 04340821 C**** 04350821 90020 FORMAT (" ",21X,I5," TESTS PASSED" ) 04360821 90022 FORMAT (" ",21X,I5," TESTS FAILED" ) 04370821 90024 FORMAT (" ",21X,I5," TESTS DELETED" ) 04380821 90026 FORMAT (" ",21X,I5," TESTS REQUIRE INSPECTION" ) 04390821 90028 FORMAT (" ",21X,I5," OF ",I3," TESTS EXECUTED" ) 04400821 CBE** ********************** BBCFMT0B **********************************04410821 C***** 04420821 C***** END OF TEST SEGMENT 190 04430821 STOP 04440821 END 04450821 04460821

Fortran/UnitTests/fcvs21_f95/FM821.f

c======================================================================= c c subroutine COVL c c Empirical Covariance matrix with different data length (cf. covm.f) c c----------------------------------------------------------------------- SUBROUTINE covl ( n, p, length, x, dwork, cov, info ) c----------------------------------------------------------------------- c c INPUT c n : number of values integer c p : number of assets (p > 0) integer c length : lenght of each asset hist. (p) integer c x : assets values (n*p) double c c WORKSPACE c dwork : (p*(1 + n + p) + 2*n) double c c OUTPUT c cov : covariance matrix (p*p) double c info : = 0 successful exit integer c c CALL c EVIMAX : maximum of a vector (integers) c YMP : copy a sub-block of a vectorized matrix in a vectorized matrix c COVMVM : covariance matrix and the mean vector c VARIAN : variance c c----------------------------------------------------------------------- c IMPLICIT NONE c c arguments i/o INTEGER n, p, info INTEGER length(*) DOUBLE PRECISION x(n,*), cov(p,*) c c workspaces DOUBLE PRECISION dwork(*) c c local variables INTEGER i, j, l, izero, iun, ideux, maxlength, lmin, & pdwork, pdr, pdw, pdv, pdm PARAMETER ( izero = 0, iun = 1, ideux = 2 ) c c intrinsic functions INTRINSIC min c c----------------------------------------------------------------------- c c initialization info = 0 c c pointers for double precision work space : dwork c ------------------------------------------------- pdwork = 1 pdr = pdwork c pdr : pointer for sub-values, needs (n*2) pdw = pdr + ( 2*n ) c pdw : pointer for dwork COVMVM, needs ( n*p) pdv = pdw + ( n*p ) c pdv : pointer for rho (in COVM), needs (p) pdm = pdv + ( p ) c pdm : pointer for covariance, needs (p*p) c c Total size of dwork array = p*(1 + n + p) + 2*n c c----------------------------------------------------------------------- c c find the max length of assets history CALL EVIMAX ( p, length, maxlength ) IF (maxlength .GT. n) THEN info = -100001 RETURN ENDIF c c covariance matrix DO i = 1,p-1 DO j = i+1,p c c covariance of two assets (on the smallest length) lmin = min(length(i), length(j)) CALL YMP ( n, p, x, lmin, iun, iun, i, & dwork(pdr), info ) CALL YMP ( n, p, x, lmin, iun, iun, j, & dwork(pdr + lmin), info ) c YMP : info = 0 by construction CALL covmvm ( lmin, ideux, dwork(pdr), dwork(pdw), & dwork(pdv), dwork(pdm), info) IF (info .lt. 0) RETURN c c writing in full covariance matrix of non-diagonal elements c of 2x2 matrix cov(j,i) = dwork(pdm + 1) cov(i,j) = dwork(pdm + 2) ENDDO ENDDO c c computing variance (with all values) DO i = 1,p l = length(i) CALL VARIAN ( l, x(1,i), cov(i,i), info ) IF (info .LT. 0) RETURN ENDDO RETURN END

src/math/analysis/cov/covl.f

subroutine rpt2(ixy,imp,maxm,meqn,mwaves,maux,mbc,mx,ql,qr,aux1,aux2,aux3,asdq,bmasdq,bpasdq) ! ============================================================================ ! Solves transverse Riemann problem for the multilayer shallow water ! equations in 2D with topography and wind forcing: ! (rho_1 h_1)_t + (rho_1 h_1 u_1)_x + (rho_1 h_1 v_1)_y = 0 ! (rho_1 h_1 u_1)_t + (rho_1 h_1 u_1^2 + 1/2 g rho_1 h_1^2)_x + (rho_1 h_1 u_1 v_1)_y = -g rho_1 h_1(r(h_2)_x + B_x) ! (rho_1 h_1 v_1)_t + (rho_1 h_1 u_1 v_1)_x + (rho_1 h_1 v_1^2 + 1/2 g rho_1 h_1^2)_y = -g rho_1 h_1(r(h_2)_y + B_y) ! (rho_2 h_2)_t + (rho_2 h_2 u_2)_x + (rho_2 h_2 v_2)_y = 0 ! (rho_2 h_2 u_2)_t + (rho_2 h_2 u_2^2 + 1/2 g rho_2 h_2^2)_x + (rho_2 h_2 u_2 v_2)_y = -g rho_2 h_2(h_1 + B)_x ! (rho_2 h_2 v_2)_t + (rho_2 h_2 u_2 v_2)_x + (rho_2 h_2 v_2^2 + 1/2 g rho_2 h_2^2)_y = -g rho_2 h_2(h_1 + B)_y ! ! On input, ql contains the state vector at the left edge of each cell and qr ! contains the state vector at the right edge of each cell ! ! | | ! qr(i-1)|ql(i) qr(i)|ql(i+1) ! ----------|------------|---------- ! i-1 i i+1 ! ! The i-1/2 Riemann problem has left state qr(i-1) and right state ql(i) ! ! If ixy == 1 then the sweep direction is x, ixy == 2 implies the y direction ! if imp == 1 then the split is in the negative direction, imp == 2 positive ! ! Kyle T. Mandli (10-13-2010) ! ============================================================================== ! Note that this version does not work with PyClaw due to missing parameters ! from the modules. ! ============================================================================== use amr_module, only: mcapa use geoclaw_module, only: g => grav, rho, earth_radius, pi use multilayer_module, only: num_layers, eigen_method, inundation_method use multilayer_module, only: eigen_func, inundation_eigen_func use multilayer_module, only: dry_tolerance, aux_layer_index implicit none ! Input arguments integer, intent(in) :: ixy,maxm,meqn,mwaves,mbc,mx,imp,maux double precision, dimension(meqn,1-mbc:maxm+mbc), intent(in) :: ql,qr double precision, dimension(meqn,1-mbc:maxm+mbc), intent(inout) :: asdq double precision, dimension(maux,1-mbc:maxm+mbc), intent(in) :: aux1,aux2,aux3 ! Ouput double precision, dimension(meqn,1-mbc:maxm+mbc), intent(out) :: bmasdq,bpasdq ! Local storage integer :: i,j,m,mw,n_index,t_index,info double precision :: dxdcm,dxdcp double precision, dimension(3) :: b double precision, dimension(6) :: s,delta,pivot double precision, dimension(6,6) :: eig_vec,A ! Single layer solver storage double precision :: ql_sl(3),qr_sl(3) double precision :: aux1_sl(3,2),aux2_sl(3,2),aux3_sl(3,2) double precision :: asdq_sl(3),bmasdq_sl(3),bpasdq_sl(3) double precision :: ts(6),teig_vec(6,6) integer :: layer_index logical :: dry_state_l(2),dry_state_r(2) double precision :: h(2),hu(2),hv(2),u(2),v(2),h_hat(2),gamma double precision :: alpha(4) ! Output array intializations bmasdq = 0.d0 bpasdq = 0.d0 ! Normal and transverse sweep directions if (ixy == 1) then n_index = 2 t_index = 3 else n_index = 3 t_index = 2 endif ! ======================================================================== ! Loop over each cell and decompose fluctuations into transverse waves ! if ixy == 1, and imp == 1 splitting amdq into up and down going ! if ixy == 1, and imp == 2 splitting apdq into up and down going ! if ixy == 2, and imp == 1 splitting bmdq into left and right going ! if ixy == 2, and imp == 2 splitting bpdq into left and right going ! ======================================================================== do i=2-mbc,mx+mbc ! Parse states and pick out important states do j=1,2 layer_index = 3*(j-1) ! Solving in the left grid cell (A^-\Delta Q) if (imp == 1) then h(j) = qr(layer_index + 1,i-1) / rho(j) hu(j) = qr(layer_index + n_index,i-1) / rho(j) hv(j) = qr(layer_index + t_index,i-1) / rho(j) b(3) = aux3(1,i-1) b(2) = aux2(1,i-1) b(1) = aux1(1,i-1) h_hat(1) = aux2(aux_layer_index,i-1) h_hat(2) = aux2(aux_layer_index+1,i-1) ! Solving in the right grid cell (A^+ \Delta Q) else h(j) = ql(layer_index + 1,i) / rho(j) hu(j) = ql(layer_index + n_index,i) / rho(j) hv(j) = ql(layer_index + t_index,i) / rho(j) b(3) = aux3(1,i) b(2) = aux2(1,i) b(1) = aux1(1,i) h_hat = aux2(aux_layer_index:aux_layer_index+1,i) endif if (h(j) < dry_tolerance(j)) then u(j) = 0.d0 v(j) = 0.d0 else u(j) = hu(j) / h(j) v(j) = hv(j) / h(j) endif enddo ! ==================================================================== ! Check for dry states in the bottom layer, ! This is if we are right next to a wall, use single layer solver if (h(1) < dry_tolerance(1) .or. h(2) < dry_tolerance(2)) then ! Storage for single layer rpt2 if (h(1) < dry_tolerance(1)) then ql_sl = ql(1:3,i) / rho(1) qr_sl = qr(1:3,i-1) / rho(1) asdq_sl = asdq(1:3,i) / rho(1) else if (h(2) < dry_tolerance(2)) then ql_sl = ql(4:6,i) / rho(2) qr_sl = qr(4:6,i-1) / rho(2) asdq_sl = asdq(4:6,i) / rho(2) else print *, "Invalid dry-state found." print *, " h = ", h stop end if aux1_sl = aux1(1:3,i-1:i) aux2_sl = aux2(1:3,i-1:i) aux3_sl = aux3(1:3,i-1:i) ! Call solve call rpt2_single_layer(ixy,imp,ql_sl,qr_sl,aux1_sl,aux2_sl, & aux3_sl,asdq_sl,bmasdq_sl,bpasdq_sl) if (h(1) < dry_tolerance(1)) then bmasdq(1:3,i) = bmasdq_sl * rho(1) bpasdq(1:3,i) = bpasdq_sl * rho(1) else if (h(2) < dry_tolerance(2)) then bmasdq(4:6,i) = bmasdq_sl * rho(2) bpasdq(4:6,i) = bpasdq_sl * rho(2) end if cycle endif ! ==================================================================== ! Two-layers with no dry states in the vicinity ! Compute eigenvector matrix - Linearized system if (eigen_method == 1) then call eigen_func(h_hat,h_hat,v,v,u,u,t_index,n_index,s,eig_vec) else call eigen_func(h,h,v,v,u,u,t_index,n_index,s,eig_vec) endif ! ==================================================================== ! Solve projection onto eigenvectors - Use LAPACK's dgesv routine ! N - (int) - Number of linear equations (6) ! NRHS - (int) - Number of right hand sides (1) ! A - (dp(6,6)) - Coefficient matrix, in this case eig_vec ! LDA - (int) - Leading dimension of A (6) ! IPIV - (int(N)) - Pivot indices ! B - (dp(LDB,NRHS)) - RHS of equations (delta) ! LDB - (int) - Leading dimension of B (6) ! INFO - (int) - Status of result ! Note that the solution (betas) are in delta after the call delta = asdq(:,i) ! This is what we are splitting up A = eig_vec ! We need to do this as the return matrix is modified and ! we have to use eig_vec again to compute fwaves call dgesv(6,1,A,6,pivot,delta,6,info) if (.not.(info == 0)) then print "(a,i2,a,i2)","In transverse solver: ixy=",ixy," imp=",imp print "(a,i3)"," Error solving R beta = delta,",info print "(a,i3)"," Location: ",i print "(a,6d16.8)"," Eigenspeeds: ",s(:) print "(a)"," Eigenvectors:" do j=1,6 print "(a,6d16.8)"," ",(eig_vec(j,mw),mw=1,6) enddo print "(6d16.8)",h,hu,hv stop endif ! Handle lat-long coordinate systems if (mcapa > 0) then if (ixy == 2) then dxdcp=(earth_radius*pi/180.d0) dxdcm = dxdcp else if (imp == 1) then dxdcp = earth_radius*pi*cos(aux3(3,i-1))/180.d0 dxdcm = earth_radius*pi*cos(aux1(3,i-1))/180.d0 else dxdcp = earth_radius*pi*cos(aux3(3,i))/180.d0 dxdcm = earth_radius*pi*cos(aux1(3,i))/180.d0 endif endif else dxdcp = 1.d0 dxdcm = 1.d0 endif ! ==================================================================== ! Determine transverse fluctuations ! We also check to see if the fluctuation would enter a dry cell and ! skip that split if this is true do mw=1,mwaves if (s(mw) > 0.d0) then if (h(2) + b(2) < b(3)) then bpasdq(1:3,i) = bpasdq(1:3,i) + dxdcp * s(mw) * delta(mw) * eig_vec(1:3,mw) else bpasdq(:,i) = bpasdq(:,i) + dxdcp * s(mw) * delta(mw) * eig_vec(:,mw) endif else if (s(mw) < 0.d0) then if (h(2) + b(2) < b(1)) then bmasdq(1:3,i) = bmasdq(1:3,i) + dxdcm * s(mw) * delta(mw) * eig_vec(1:3,mw) else bmasdq(:,i) = bmasdq(:,i) + dxdcm * s(mw) * delta(mw) * eig_vec(:,mw) endif endif enddo enddo end subroutine rpt2 subroutine rpt2_single_layer(ixy,imp,ql,qr,aux1,aux2,aux3,asdq,bmasdq,bpasdq) ! Single layer point-wise transverse Riemann solver using an einfeldt Jacobian ! Note that there have been some changes to variable definitions in this ! routine from the original vectorized one. ! ! Adapted from geoclaw 4-23-2011 use amr_module, only: mcapa use geoclaw_module, only: g => grav, earth_radius, pi use multilayer_module, only: num_layers, eigen_method, inundation_method use multilayer_module, only: dry_tolerance implicit none integer, parameter :: meqn = 3 integer, parameter :: mwaves = 3 integer, intent(in) :: ixy,imp real(kind=8), intent(in) :: ql(meqn) ! = ql(i,meqn) real(kind=8), intent(in) :: qr(meqn) ! = qr(i-1,meqn) real(kind=8), intent(in out) :: asdq(meqn) real(kind=8), intent(in out) :: bmasdq(meqn) real(kind=8), intent(in out) :: bpasdq(meqn) ! Since we need two values of aux, 1 = i-1 and 2 = i real(kind=8), intent(in) :: aux1(2,3) real(kind=8), intent(in) :: aux2(2,3) real(kind=8), intent(in) :: aux3(2,3) real(kind=8) :: s(3) real(kind=8) :: r(3,3) real(kind=8) :: beta(3) real(kind=8) :: abs_tol real(kind=8) :: hl,hr,hul,hur,hvl,hvr,vl,vr,ul,ur,bl,br real(kind=8) :: uhat,vhat,hhat,roe1,roe3,s1,s2,s3,s1l,s3r real(kind=8) :: delf1,delf2,delf3,dxdcd,dxdcu real(kind=8) :: dxdcm,dxdcp,topo1,topo3,eta,tol integer :: m,mw,mu,mv tol = dry_tolerance(1) abs_tol = tol if (ixy.eq.1) then mu = 2 mv = 3 else mu = 3 mv = 2 endif hl=qr(1) hr=ql(1) hul=qr(mu) hur=ql(mu) hvl=qr(mv) hvr=ql(mv) !===========determine velocity from momentum=========================== if (hl.lt.abs_tol) then hl=0.d0 ul=0.d0 vl=0.d0 else ul=hul/hl vl=hvl/hl endif if (hr.lt.abs_tol) then hr=0.d0 ur=0.d0 vr=0.d0 else ur=hur/hr vr=hvr/hr endif do mw=1,mwaves s(mw)=0.d0 beta(mw)=0.d0 do m=1,meqn r(m,mw)=0.d0 enddo enddo dxdcp = 1.d0 dxdcm = 1.d0 if (hl.le.dry_tolerance(1).and.hr.le.dry_tolerance(1)) go to 90 !check and see if cell that transverse waves are going in is high and dry if (imp.eq.1) then eta = qr(1) + aux2(1,1) topo1 = aux1(1,1) topo3 = aux3(1,1) else eta = ql(1) + aux2(1,2) topo1 = aux1(1,2) topo3 = aux3(1,2) endif if (eta.lt.max(topo1,topo3)) go to 90 if (mcapa > 0) then if (ixy.eq.2) then dxdcp=(earth_radius*pi/180.d0) dxdcm = dxdcp else if (imp.eq.1) then dxdcp = earth_radius*pi*cos(aux3(3,1))/180.d0 dxdcm = earth_radius*pi*cos(aux1(3,1))/180.d0 else dxdcp = earth_radius*pi*cos(aux3(3,2))/180.d0 dxdcm = earth_radius*pi*cos(aux1(3,2))/180.d0 endif endif endif !=====Determine some speeds necessary for the Jacobian================= vhat=(vr*dsqrt(hr))/(dsqrt(hr)+dsqrt(hl)) + & (vl*dsqrt(hl))/(dsqrt(hr)+dsqrt(hl)) uhat=(ur*dsqrt(hr))/(dsqrt(hr)+dsqrt(hl)) + & (ul*dsqrt(hl))/(dsqrt(hr)+dsqrt(hl)) hhat=(hr+hl)/2.d0 roe1=vhat-dsqrt(g*hhat) roe3=vhat+dsqrt(g*hhat) s1l=vl-dsqrt(g*hl) s3r=vr+dsqrt(g*hr) s1=dmin1(roe1,s1l) s3=dmax1(roe3,s3r) s2=0.5d0*(s1+s3) s(1)=s1 s(2)=s2 s(3)=s3 !=======================Determine asdq decomposition (beta)============ delf1=asdq(1) delf2=asdq(mu) delf3=asdq(mv) beta(1) = (s3*delf1/(s3-s1))-(delf3/(s3-s1)) beta(2) = -s2*delf1 + delf2 beta(3) = (delf3/(s3-s1))-(s1*delf1/(s3-s1)) !======================End ================================================= !=====================Set-up eigenvectors=================================== r(1,1) = 1.d0 r(2,1) = s2 r(3,1) = s1 r(1,2) = 0.d0 r(2,2) = 1.d0 r(3,2) = 0.d0 r(1,3) = 1.d0 r(2,3) = s2 r(3,3) = s3 !============================================================================ 90 continue !============= compute fluctuations========================================== do m=1,meqn bmasdq(m)=0.0d0 bpasdq(m)=0.0d0 enddo do mw=1,3 if (s(mw).lt.0.d0) then bmasdq(1) =bmasdq(1) + dxdcm*s(mw)*beta(mw)*r(1,mw) bmasdq(mu)=bmasdq(mu)+ dxdcm*s(mw)*beta(mw)*r(2,mw) bmasdq(mv)=bmasdq(mv)+ dxdcm*s(mw)*beta(mw)*r(3,mw) elseif (s(mw).gt.0.d0) then bpasdq(1) =bpasdq(1) + dxdcp*s(mw)*beta(mw)*r(1,mw) bpasdq(mu)=bpasdq(mu)+ dxdcp*s(mw)*beta(mw)*r(2,mw) bpasdq(mv)=bpasdq(mv)+ dxdcp*s(mw)*beta(mw)*r(3,mw) endif enddo end subroutine rpt2_single_layer

src/rpt2_layered_shallow_water.f90

SUBROUTINE RU_PLVL ( field, above, level, pres, iret ) C************************************************************************ C* RU_PLVL * C* * C* This subroutine gets the level number and pressure from a group * C* which is in the form LLPPP. LL must be the same integer, repeated; * C* for example, 11 corresponds to level 1. * C* * C* RU_PLVL ( FIELD, ABOVE, LEVEL, PRES, IRET ) * C* * C* Input parameters: * C* FIELD CHAR* Input field * C* ABOVE LOGICAL Above 100 mb flag * C* * C* Output parameters: * C* LEVEL INTEGER Level number * C* -1 = level not found * C* 0 = valid surface level * C* 1 - 9 = valid levels * C* PRES REAL Pressure * C* IRET INTEGER Return code * C* 0 = normal return * C** * C* Log: * C* M. desJardins/GSFC 6/86 * C************************************************************************ INCLUDE 'GEMPRM.PRM' C* LOGICAL above CHARACTER*(*) field CHARACTER clev(10)*2 CHARACTER cc*2 DATA clev / '00','11','22','33','44','55','66', + '77','88','99' / C------------------------------------------------------------------------ iret = 0 level = -1 pres = RMISSD C C* Check first two character for level number. C cc = field ( 1:2 ) DO i = 1, 10 IF ( cc .eq. clev (i) ) level = i - 1 END DO C C* If a level was found, decode the pressure. C IF ( level .ne. -1 ) THEN CALL ST_INTG ( field (3:5), ipres, ier ) C C* Save the pressure if it could be decoded. C IF ( ier .eq. 0 ) THEN C C* Pressures above 100 mb are in tenths; below 100 mb are C* in units. C IF ( above ) THEN pres = FLOAT ( ipres ) / 10. ELSE pres = FLOAT ( ipres ) IF ( pres .lt. 100. ) pres = pres + 1000. END IF C C* If the pressure is missing, reset the level to -1. C ELSE level = -1 END IF END IF C* RETURN END

gempak/source/bridge/ru/ruplvl.f

! Run with -np 5 and s = 18. Sometimes MPI_Barrier doesn't help if the output ! buffer is not flushed on time. program scatterv use mpi_f08 implicit none type(MPI_Comm) :: comm integer :: my_rank, n_ranks, root integer :: s, i, remainder, quotient, displacement, count, rank, b, e integer, allocatable :: rbuf(:), sbuf(:) integer, allocatable :: counts(:), displacements(:) call MPI_Init() comm = MPI_COMM_WORLD call MPI_Comm_size(comm, n_ranks) call MPI_Comm_rank(comm, my_rank) root = 0 ! Read-in `s` on rank 0, allocate sbuf(s) only on rank 0 and later vector- ! scatter it to other ranks. s = 0 if (my_rank == root) read *, s allocate(sbuf(s)) if (my_rank == root) sbuf(:) = [ (i, i = 1, s) ] call MPI_Bcast(s, 1, MPI_INTEGER, root, comm) remainder = modulo(s, n_ranks) quotient = (s - remainder) / n_ranks allocate(counts(0:n_ranks - 1)) allocate(displacements(0:n_ranks - 1)) displacement = 0 do rank = 0, n_ranks - 1 if (rank < remainder) then counts(rank) = quotient + 1 else counts(rank) = quotient end if displacements(rank) = displacement displacement = displacement + counts(rank) if (rank == my_rank) then count = counts(rank) b = displacements(rank) + 1 e = displacements(rank) + count end if end do allocate(rbuf(b:e), source=0) call print_vals() call MPI_Scatterv(sbuf, counts, displacements, MPI_INTEGER, & rbuf, count, MPI_INTEGER, root, comm) call print_vals() if (allocated(sbuf)) deallocate(sbuf) if (allocated(rbuf)) deallocate(rbuf) if (allocated(counts)) deallocate(counts) if (allocated(displacements)) deallocate(displacements) call MPI_Finalize() contains !--------------------------------------------------------------------------- subroutine print_vals() integer :: rank do rank = 0, n_ranks - 1 if (rank == my_rank) then print "(a, i0, a, *(i2, 1x))", "Rank ", rank, ", sbuf(:)=", sbuf end if call MPI_Barrier(comm) end do do rank = 0, n_ranks - 1 if (rank == my_rank) then print "(a, i0, a, *(i2, 1x))", "Rank ", rank, ", rbuf(:)=", rbuf end if call MPI_Barrier(comm) end do if (my_rank == 0) print * end subroutine print_vals !--------------------------------------------------------------------------- end program scatterv

Lecture_12/collectives/scatterv.f90

module bc_state_turbo_interface_steady #include <messenger.h> use mod_kinds, only: rk,ik use mod_constants, only: ZERO, ONE, TWO, HALF, ME, CYLINDRICAL, & XI_MIN, XI_MAX, ETA_MIN, ETA_MAX, ZETA_MIN, ZETA_MAX, PI use mod_fluid, only: gam, Rgas, cp use type_point, only: point_t use type_mesh, only: mesh_t use type_bc_state, only: bc_state_t use bc_giles_HB_base, only: giles_HB_base_t use type_bc_patch, only: bc_patch_t use type_chidg_worker, only: chidg_worker_t use type_properties, only: properties_t use type_face_info, only: face_info_t, face_info_constructor use type_element_info, only: element_info_t use ieee_arithmetic, only: ieee_is_nan use mpi_f08, only: mpi_comm use DNAD_D implicit none !> Name: inlet - 3D Giles !! !! Options: !! : Average Pressure !! !! Behavior: !! !! References: !! !! @author Nathan A. Wukie !! @date 2/8/2018 !! !--------------------------------------------------------------------------------- type, public, extends(giles_HB_base_t) :: turbo_interface_steady_t contains procedure :: init ! Set-up bc state with options/name etc. procedure :: compute_bc_state ! boundary condition function implementation procedure :: compute_absorbing_interface procedure :: apply_nonreflecting_condition end type turbo_interface_steady_t !********************************************************************************* contains !> !! !! @author Nathan A. average_pressure !! @date 2/8/2017 !! !-------------------------------------------------------------------------------- subroutine init(self) class(turbo_interface_steady_t), intent(inout) :: self ! Set name, family call self%set_name('Steady Turbo Interface') call self%set_family('Inlet') ! Add functions call self%bcproperties%add('Pitch A', 'Required') call self%bcproperties%add('Pitch B', 'Required') end subroutine init !******************************************************************************** !> !! !! @author Nathan A. Wukie !! @date 2/8/2018 !! !! @param[in] worker Interface for geometry, cache, integration, etc. !! @param[inout] prop properties_t object containing equations and material_t objects !! !------------------------------------------------------------------------------------------- subroutine compute_bc_state(self,worker,prop,bc_comm) class(turbo_interface_steady_t), intent(inout) :: self type(chidg_worker_t), intent(inout) :: worker class(properties_t), intent(inout) :: prop type(mpi_comm), intent(in) :: bc_comm ! Storage at quadrature nodes type(AD_D), allocatable, dimension(:) :: & density_bc, mom1_bc, mom2_bc, mom3_bc, energy_bc, pressure_bc, vel1_bc, vel2_bc, vel3_bc, & grad1_density_m, grad1_mom1_m, grad1_mom2_m, grad1_mom3_m, grad1_energy_m, & grad2_density_m, grad2_mom1_m, grad2_mom2_m, grad2_mom3_m, grad2_energy_m, & grad3_density_m, grad3_mom1_m, grad3_mom2_m, grad3_mom3_m, grad3_energy_m type(AD_D), allocatable, dimension(:,:) :: & density_check_real_gq, vel1_check_real_gq, vel2_check_real_gq, vel3_check_real_gq, pressure_check_real_gq, & density_check_imag_gq, vel1_check_imag_gq, vel2_check_imag_gq, vel3_check_imag_gq, pressure_check_imag_gq type(AD_D), allocatable, dimension(:,:,:) :: & density_check_real_m, vel1_check_real_m, vel2_check_real_m, vel3_check_real_m, pressure_check_real_m, c_check_real_m, & density_check_imag_m, vel1_check_imag_m, vel2_check_imag_m, vel3_check_imag_m, pressure_check_imag_m, c_check_imag_m, & density_hat_real_m, vel1_hat_real_m, vel2_hat_real_m, vel3_hat_real_m, pressure_hat_real_m, c_hat_real_m, & density_hat_imag_m, vel1_hat_imag_m, vel2_hat_imag_m, vel3_hat_imag_m, pressure_hat_imag_m, c_hat_imag_m, & density_check_real_p, vel1_check_real_p, vel2_check_real_p, vel3_check_real_p, pressure_check_real_p, c_check_real_p, & density_check_imag_p, vel1_check_imag_p, vel2_check_imag_p, vel3_check_imag_p, pressure_check_imag_p, c_check_imag_p, & density_hat_real_p, vel1_hat_real_p, vel2_hat_real_p, vel3_hat_real_p, pressure_hat_real_p, c_hat_real_p, & density_hat_imag_p, vel1_hat_imag_p, vel2_hat_imag_p, vel3_hat_imag_p, pressure_hat_imag_p, c_hat_imag_p, & density_hat_real_abs, vel1_hat_real_abs, vel2_hat_real_abs, vel3_hat_real_abs, pressure_hat_real_abs, & density_hat_imag_abs, vel1_hat_imag_abs, vel2_hat_imag_abs, vel3_hat_imag_abs, pressure_hat_imag_abs, & density_hat_real_gq, vel1_hat_real_gq, vel2_hat_real_gq, vel3_hat_real_gq, pressure_hat_real_gq, & density_hat_imag_gq, vel1_hat_imag_gq, vel2_hat_imag_gq, vel3_hat_imag_gq, pressure_hat_imag_gq, & density_grid_m, vel1_grid_m, vel2_grid_m, vel3_grid_m, pressure_grid_m, c_grid_m, & density_grid_p, vel1_grid_p, vel2_grid_p, vel3_grid_p, pressure_grid_p, c_grid_p type(AD_D), allocatable, dimension(:) :: r character(1) :: side ! Interpolate interior solution to face quadrature nodes grad1_density_m = worker%get_field('Density' , 'grad1', 'face interior') grad2_density_m = worker%get_field('Density' , 'grad2', 'face interior') grad3_density_m = worker%get_field('Density' , 'grad3', 'face interior') grad1_mom1_m = worker%get_field('Momentum-1', 'grad1', 'face interior') grad2_mom1_m = worker%get_field('Momentum-1', 'grad2', 'face interior') grad3_mom1_m = worker%get_field('Momentum-1', 'grad3', 'face interior') grad1_mom2_m = worker%get_field('Momentum-2', 'grad1', 'face interior') grad2_mom2_m = worker%get_field('Momentum-2', 'grad2', 'face interior') grad3_mom2_m = worker%get_field('Momentum-2', 'grad3', 'face interior') grad1_mom3_m = worker%get_field('Momentum-3', 'grad1', 'face interior') grad2_mom3_m = worker%get_field('Momentum-3', 'grad2', 'face interior') grad3_mom3_m = worker%get_field('Momentum-3', 'grad3', 'face interior') grad1_energy_m = worker%get_field('Energy' , 'grad1', 'face interior') grad2_energy_m = worker%get_field('Energy' , 'grad2', 'face interior') grad3_energy_m = worker%get_field('Energy' , 'grad3', 'face interior') ! Store boundary gradient state. Grad(Q_bc). Do this here, before we ! compute any transformations for cylindrical. call worker%store_bc_state('Density' , grad1_density_m, 'grad1') call worker%store_bc_state('Density' , grad2_density_m, 'grad2') call worker%store_bc_state('Density' , grad3_density_m, 'grad3') call worker%store_bc_state('Momentum-1', grad1_mom1_m, 'grad1') call worker%store_bc_state('Momentum-1', grad2_mom1_m, 'grad2') call worker%store_bc_state('Momentum-1', grad3_mom1_m, 'grad3') call worker%store_bc_state('Momentum-2', grad1_mom2_m, 'grad1') call worker%store_bc_state('Momentum-2', grad2_mom2_m, 'grad2') call worker%store_bc_state('Momentum-2', grad3_mom2_m, 'grad3') call worker%store_bc_state('Momentum-3', grad1_mom3_m, 'grad1') call worker%store_bc_state('Momentum-3', grad2_mom3_m, 'grad2') call worker%store_bc_state('Momentum-3', grad3_mom3_m, 'grad3') call worker%store_bc_state('Energy' , grad1_energy_m, 'grad1') call worker%store_bc_state('Energy' , grad2_energy_m, 'grad2') call worker%store_bc_state('Energy' , grad3_energy_m, 'grad3') ! Get primitive variables at (radius,theta,time) grid. call self%get_q_side(worker,bc_comm,'A', & density_grid_m, & vel1_grid_m, & vel2_grid_m, & vel3_grid_m, & pressure_grid_m) c_grid_m = sqrt(gam*pressure_grid_m/density_grid_m) ! Compute Fourier decomposition of temporal data at points ! on the spatial transform grid. ! q_check(r,theta,omega) = DFT(q)[time] call self%compute_temporal_dft(worker,bc_comm, & density_grid_m, & vel1_grid_m, & vel2_grid_m, & vel3_grid_m, & pressure_grid_m, & c_grid_m, & density_check_real_m, density_check_imag_m, & vel1_check_real_m, vel1_check_imag_m, & vel2_check_real_m, vel2_check_imag_m, & vel3_check_real_m, vel3_check_imag_m, & pressure_check_real_m, pressure_check_imag_m, & c_check_real_m, c_check_imag_m) ! Compute Fourier decomposition in theta at set of radial ! stations for each temporal mode: ! q_hat(r,m,omega) = DFT(q_check)[theta] call self%compute_spatial_dft(worker,bc_comm,'A', & density_check_real_m, density_check_imag_m, & vel1_check_real_m, vel1_check_imag_m, & vel2_check_real_m, vel2_check_imag_m, & vel3_check_real_m, vel3_check_imag_m, & pressure_check_real_m, pressure_check_imag_m, & c_check_real_m, c_check_imag_m, & density_hat_real_m, density_hat_imag_m, & vel1_hat_real_m, vel1_hat_imag_m, & vel2_hat_real_m, vel2_hat_imag_m, & vel3_hat_real_m, vel3_hat_imag_m, & pressure_hat_real_m, pressure_hat_imag_m, & c_hat_real_m, c_hat_imag_m) ! Get exterior perturbation call self%get_q_side(worker,bc_comm,'B', & density_grid_p, & vel1_grid_p, & vel2_grid_p, & vel3_grid_p, & pressure_grid_p) c_grid_p = sqrt(gam*pressure_grid_p/density_grid_p) ! Compute Fourier decomposition of temporal data at points ! on the spatial transform grid. ! q_check(r,theta,omega) = DFT(q)[time] call self%compute_temporal_dft(worker,bc_comm, & density_grid_p, & vel1_grid_p, & vel2_grid_p, & vel3_grid_p, & pressure_grid_p, & c_grid_p, & density_check_real_p, density_check_imag_p, & vel1_check_real_p, vel1_check_imag_p, & vel2_check_real_p, vel2_check_imag_p, & vel3_check_real_p, vel3_check_imag_p, & pressure_check_real_p, pressure_check_imag_p, & c_check_real_p, c_check_imag_p) ! Compute Fourier decomposition in theta at set of radial ! stations for each temporal mode: ! q_hat(r,m,omega) = DFT(q_check)[theta] call self%compute_spatial_dft(worker,bc_comm,'B', & density_check_real_p, density_check_imag_p, & vel1_check_real_p, vel1_check_imag_p, & vel2_check_real_p, vel2_check_imag_p, & vel3_check_real_p, vel3_check_imag_p, & pressure_check_real_p, pressure_check_imag_p, & c_check_real_p, c_check_imag_p, & density_hat_real_p, density_hat_imag_p, & vel1_hat_real_p, vel1_hat_imag_p, & vel2_hat_real_p, vel2_hat_imag_p, & vel3_hat_real_p, vel3_hat_imag_p, & pressure_hat_real_p, pressure_hat_imag_p, & c_hat_real_p, c_hat_imag_p) ! Compute q_abs = f(q_p,q_m) side = self%get_face_side(worker) call self%compute_absorbing_interface(worker,bc_comm,side, & density_hat_real_m, density_hat_imag_m, & vel1_hat_real_m, vel1_hat_imag_m, & vel2_hat_real_m, vel2_hat_imag_m, & vel3_hat_real_m, vel3_hat_imag_m, & pressure_hat_real_m, pressure_hat_imag_m, & c_hat_real_m, c_hat_imag_m, & density_hat_real_p, density_hat_imag_p, & vel1_hat_real_p, vel1_hat_imag_p, & vel2_hat_real_p, vel2_hat_imag_p, & vel3_hat_real_p, vel3_hat_imag_p, & pressure_hat_real_p, pressure_hat_imag_p, & c_hat_real_p, c_hat_imag_p, & density_hat_real_abs, density_hat_imag_abs, & vel1_hat_real_abs, vel1_hat_imag_abs, & vel2_hat_real_abs, vel2_hat_imag_abs, & vel3_hat_real_abs, vel3_hat_imag_abs, & pressure_hat_real_abs, pressure_hat_imag_abs) ! q_abs(r_gq) = I(q_abs(r_aux)) call self%interpolate_raux_to_rgq(worker,bc_comm, & density_hat_real_abs, density_hat_imag_abs, & vel1_hat_real_abs, vel1_hat_imag_abs, & vel2_hat_real_abs, vel2_hat_imag_abs, & vel3_hat_real_abs, vel3_hat_imag_abs, & pressure_hat_real_abs, pressure_hat_imag_abs, & density_hat_real_gq, density_hat_imag_gq, & vel1_hat_real_gq, vel1_hat_imag_gq, & vel2_hat_real_gq, vel2_hat_imag_gq, & vel3_hat_real_gq, vel3_hat_imag_gq, & pressure_hat_real_gq, pressure_hat_imag_gq) ! Reconstruct primitive variables at quadrature nodes from absorbing Fourier modes ! via inverse transform. ! q_check(rgq,theta,omega) = IDFT(q_hat)[m] call self%compute_spatial_idft_gq(worker,bc_comm,side, & density_hat_real_gq, density_hat_imag_gq, & vel1_hat_real_gq, vel1_hat_imag_gq, & vel2_hat_real_gq, vel2_hat_imag_gq, & vel3_hat_real_gq, vel3_hat_imag_gq, & pressure_hat_real_gq, pressure_hat_imag_gq, & density_check_real_gq, density_check_imag_gq, & vel1_check_real_gq, vel1_check_imag_gq, & vel2_check_real_gq, vel2_check_imag_gq, & vel3_check_real_gq, vel3_check_imag_gq, & pressure_check_real_gq, pressure_check_imag_gq) ! q(rgq,theta,t) = IDFT(q_check)[omega] call self%compute_temporal_idft_gq(worker,bc_comm, & density_check_real_gq, density_check_imag_gq, & vel1_check_real_gq, vel1_check_imag_gq, & vel2_check_real_gq, vel2_check_imag_gq, & vel3_check_real_gq, vel3_check_imag_gq, & pressure_check_real_gq, pressure_check_imag_gq, & density_bc, vel1_bc, vel2_bc, vel3_bc, pressure_bc) ! ! Form conserved variables ! density_bc = density_bc mom1_bc = density_bc*vel1_bc mom2_bc = density_bc*vel2_bc mom3_bc = density_bc*vel3_bc energy_bc = pressure_bc/(gam - ONE) + HALF*(mom1_bc*mom1_bc + mom2_bc*mom2_bc + mom3_bc*mom3_bc)/density_bc ! ! Account for cylindrical. Convert tangential momentum back to angular momentum. ! if (worker%coordinate_system() == 'Cylindrical') then r = worker%coordinate('1','boundary') mom2_bc = mom2_bc * r end if ! ! Store boundary condition state. q_bc ! call worker%store_bc_state('Density' , density_bc, 'value') call worker%store_bc_state('Momentum-1', mom1_bc, 'value') call worker%store_bc_state('Momentum-2', mom2_bc, 'value') call worker%store_bc_state('Momentum-3', mom3_bc, 'value') call worker%store_bc_state('Energy' , energy_bc, 'value') end subroutine compute_bc_state !********************************************************************************* !> DANIEL'S FORMULATION !! !! !! !! !-------------------------------------------------------------------------------- subroutine compute_absorbing_interface(self,worker,bc_comm,side, & density_real_m, density_imag_m, & vel1_real_m, vel1_imag_m, & vel2_real_m, vel2_imag_m, & vel3_real_m, vel3_imag_m, & pressure_real_m, pressure_imag_m, & c_real_m, c_imag_m, & density_real_p, density_imag_p, & vel1_real_p, vel1_imag_p, & vel2_real_p, vel2_imag_p, & vel3_real_p, vel3_imag_p, & pressure_real_p, pressure_imag_p, & c_real_p, c_imag_p, & density_real_abs, density_imag_abs, & vel1_real_abs, vel1_imag_abs, & vel2_real_abs, vel2_imag_abs, & vel3_real_abs, vel3_imag_abs, & pressure_real_abs, pressure_imag_abs) class(turbo_interface_steady_t), intent(inout) :: self type(chidg_worker_t), intent(inout) :: worker type(mpi_comm), intent(in) :: bc_comm character(1), intent(in) :: side type(AD_D), intent(inout) :: density_real_m(:,:,:) type(AD_D), intent(inout) :: density_imag_m(:,:,:) type(AD_D), intent(inout) :: vel1_real_m(:,:,:) type(AD_D), intent(inout) :: vel1_imag_m(:,:,:) type(AD_D), intent(inout) :: vel2_real_m(:,:,:) type(AD_D), intent(inout) :: vel2_imag_m(:,:,:) type(AD_D), intent(inout) :: vel3_real_m(:,:,:) type(AD_D), intent(inout) :: vel3_imag_m(:,:,:) type(AD_D), intent(inout) :: pressure_real_m(:,:,:) type(AD_D), intent(inout) :: pressure_imag_m(:,:,:) type(AD_D), intent(inout) :: c_real_m(:,:,:) type(AD_D), intent(inout) :: c_imag_m(:,:,:) type(AD_D), intent(inout) :: density_real_p(:,:,:) type(AD_D), intent(inout) :: density_imag_p(:,:,:) type(AD_D), intent(inout) :: vel1_real_p(:,:,:) type(AD_D), intent(inout) :: vel1_imag_p(:,:,:) type(AD_D), intent(inout) :: vel2_real_p(:,:,:) type(AD_D), intent(inout) :: vel2_imag_p(:,:,:) type(AD_D), intent(inout) :: vel3_real_p(:,:,:) type(AD_D), intent(inout) :: vel3_imag_p(:,:,:) type(AD_D), intent(inout) :: pressure_real_p(:,:,:) type(AD_D), intent(inout) :: pressure_imag_p(:,:,:) type(AD_D), intent(inout) :: c_real_p(:,:,:) type(AD_D), intent(inout) :: c_imag_p(:,:,:) type(AD_D), allocatable, intent(inout) :: density_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: density_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel1_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel1_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel2_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel2_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel3_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: vel3_imag_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: pressure_real_abs(:,:,:) type(AD_D), allocatable, intent(inout) :: pressure_imag_abs(:,:,:) type(AD_D), allocatable, dimension(:,:,:) :: & a1_real, a2_real, a3_real, a4_real, a5_real, & a1_imag, a2_imag, a3_imag, a4_imag, a5_imag, & a1_real_m, a2_real_m, a3_real_m, a4_real_m, a5_real_m, & a1_imag_m, a2_imag_m, a3_imag_m, a4_imag_m, a5_imag_m, & a1_real_p, a2_real_p, a3_real_p, a4_real_p, a5_real_p, & a1_imag_p, a2_imag_p, a3_imag_p, a4_imag_p, a5_imag_p type(AD_D), allocatable, dimension(:) :: density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar real(rk), allocatable, dimension(:,:) :: unorm print*, 'WARNING: Inconsistent use of Pitch A in eigenvalue calc' density_bar = (density_real_m(:,1,1) + density_real_p(:,1,1))/TWO vel1_bar = (vel1_real_m(:,1,1) + vel1_real_p(:,1,1))/TWO vel2_bar = (vel2_real_m(:,1,1) + vel2_real_p(:,1,1))/TWO vel3_bar = (vel3_real_m(:,1,1) + vel3_real_p(:,1,1))/TWO pressure_bar = (pressure_real_m(:,1,1) + pressure_real_p(:,1,1))/TWO c_bar = (c_real_m(:,1,1) + c_real_p(:,1,1))/TWO ! Project interior to eigenmodes call self%primitive_to_eigenmodes(worker,bc_comm,'A', & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & density_real_m, density_imag_m, & vel1_real_m, vel1_imag_m, & vel2_real_m, vel2_imag_m, & vel3_real_m, vel3_imag_m, & pressure_real_m, pressure_imag_m, & a1_real_m, a1_imag_m, & a2_real_m, a2_imag_m, & a3_real_m, a3_imag_m, & a4_real_m, a4_imag_m, & a5_real_m, a5_imag_m) ! Project exterior to eigenmodes call self%primitive_to_eigenmodes(worker,bc_comm,'B', & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & density_real_p, density_imag_p, & vel1_real_p, vel1_imag_p, & vel2_real_p, vel2_imag_p, & vel3_real_p, vel3_imag_p, & pressure_real_p, pressure_imag_p, & a1_real_p, a1_imag_p, & a2_real_p, a2_imag_p, & a3_real_p, a3_imag_p, & a4_real_p, a4_imag_p, & a5_real_p, a5_imag_p) ! Allocate and zero absorbing modes a1_real = ZERO*a1_real_m a1_imag = ZERO*a1_real_m a2_real = ZERO*a1_real_m a2_imag = ZERO*a1_real_m a3_real = ZERO*a1_real_m a3_imag = ZERO*a1_real_m a4_real = ZERO*a1_real_m a4_imag = ZERO*a1_real_m a5_real = ZERO*a1_real_m a5_imag = ZERO*a1_real_m call self%apply_nonreflecting_condition(worker,bc_comm,side, & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & a1_real_m, a1_imag_m, & a2_real_m, a2_imag_m, & a3_real_m, a3_imag_m, & a4_real_m, a4_imag_m, & a5_real_m, a5_imag_m, & a1_real_p, a1_imag_p, & a2_real_p, a2_imag_p, & a3_real_p, a3_imag_p, & a4_real_p, a4_imag_p, & a5_real_p, a5_imag_p, & a1_real, a1_imag, & a2_real, a2_imag, & a3_real, a3_imag, & a4_real, a4_imag, & a5_real, a5_imag) ! To initialize average and storage density_real_abs = density_real_m density_imag_abs = density_imag_m vel1_real_abs = vel1_real_m vel1_imag_abs = vel1_imag_m vel2_real_abs = vel2_real_m vel2_imag_abs = vel2_imag_m vel3_real_abs = vel3_real_m vel3_imag_abs = vel3_imag_m pressure_real_abs = pressure_real_m pressure_imag_abs = pressure_imag_m ! Convert back to primitive variables call self%eigenmodes_to_primitive(worker,bc_comm,side, & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar, & a1_real, a1_imag, & a2_real, a2_imag, & a3_real, a3_imag, & a4_real, a4_imag, & a5_real, a5_imag, & density_real_abs, density_imag_abs, & vel1_real_abs, vel1_imag_abs, & vel2_real_abs, vel2_imag_abs, & vel3_real_abs, vel3_imag_abs, & pressure_real_abs, pressure_imag_abs) ! Update space-time average as average of 'A' and 'B' density_real_abs(:,1,1) = (density_real_m(:,1,1) + density_real_p(:,1,1))/TWO vel1_real_abs(:,1,1) = (vel1_real_m(:,1,1) + vel1_real_p(:,1,1))/TWO vel2_real_abs(:,1,1) = (vel2_real_m(:,1,1) + vel2_real_p(:,1,1))/TWO vel3_real_abs(:,1,1) = (vel3_real_m(:,1,1) + vel3_real_p(:,1,1))/TWO pressure_real_abs(:,1,1) = (pressure_real_m(:,1,1) + pressure_real_p(:,1,1))/TWO ! Zero imaginary part density_imag_abs(:,1,1) = ZERO vel1_imag_abs(:,1,1) = ZERO vel2_imag_abs(:,1,1) = ZERO vel3_imag_abs(:,1,1) = ZERO pressure_imag_abs(:,1,1) = ZERO end subroutine compute_absorbing_interface !******************************************************************************** !> !! !! !! !----------------------------------------------------------------------------------- subroutine apply_nonreflecting_condition(self,worker,bc_comm,side, & density_bar_r, vel1_bar_r, vel2_bar_r, vel3_bar_r, pressure_bar_r, c_bar_r, & a1_real_m, a1_imag_m, & a2_real_m, a2_imag_m, & a3_real_m, a3_imag_m, & a4_real_m, a4_imag_m, & a5_real_m, a5_imag_m, & a1_real_p, a1_imag_p, & a2_real_p, a2_imag_p, & a3_real_p, a3_imag_p, & a4_real_p, a4_imag_p, & a5_real_p, a5_imag_p, & a1_real, a1_imag, & a2_real, a2_imag, & a3_real, a3_imag, & a4_real, a4_imag, & a5_real, a5_imag) class(turbo_interface_steady_t), intent(inout) :: self type(chidg_worker_t), intent(inout) :: worker type(mpi_comm), intent(in) :: bc_comm character(1), intent(in) :: side type(AD_D), intent(in) :: density_bar_r(:) type(AD_D), intent(in) :: vel1_bar_r(:) type(AD_D), intent(in) :: vel2_bar_r(:) type(AD_D), intent(in) :: vel3_bar_r(:) type(AD_D), intent(in) :: pressure_bar_r(:) type(AD_D), intent(in) :: c_bar_r(:) type(AD_D), intent(inout) :: a1_real_m(:,:,:) type(AD_D), intent(inout) :: a1_imag_m(:,:,:) type(AD_D), intent(inout) :: a2_real_m(:,:,:) type(AD_D), intent(inout) :: a2_imag_m(:,:,:) type(AD_D), intent(inout) :: a3_real_m(:,:,:) type(AD_D), intent(inout) :: a3_imag_m(:,:,:) type(AD_D), intent(inout) :: a4_real_m(:,:,:) type(AD_D), intent(inout) :: a4_imag_m(:,:,:) type(AD_D), intent(inout) :: a5_real_m(:,:,:) type(AD_D), intent(inout) :: a5_imag_m(:,:,:) type(AD_D), intent(inout) :: a1_real_p(:,:,:) type(AD_D), intent(inout) :: a1_imag_p(:,:,:) type(AD_D), intent(inout) :: a2_real_p(:,:,:) type(AD_D), intent(inout) :: a2_imag_p(:,:,:) type(AD_D), intent(inout) :: a3_real_p(:,:,:) type(AD_D), intent(inout) :: a3_imag_p(:,:,:) type(AD_D), intent(inout) :: a4_real_p(:,:,:) type(AD_D), intent(inout) :: a4_imag_p(:,:,:) type(AD_D), intent(inout) :: a5_real_p(:,:,:) type(AD_D), intent(inout) :: a5_imag_p(:,:,:) type(AD_D), allocatable, intent(inout) :: a1_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a1_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a2_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a2_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a3_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a3_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a4_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a4_imag(:,:,:) type(AD_D), allocatable, intent(inout) :: a5_real(:,:,:) type(AD_D), allocatable, intent(inout) :: a5_imag(:,:,:) integer(ik) :: iradius, itheta, ntheta, itime type(AD_D) :: beta, B3_real, B3_imag, B4_real, B4_imag, & density_bar, vel1_bar, vel2_bar, vel3_bar, pressure_bar, c_bar ! NOTE the amplitude strategy here is for 1d characteristics. The unsteady amplitudes ! have diffferent propagation directions so the logic will be different. if (side=='A') then ! Extrapolate amplitudes from upstream a1_real = a1_real_m a1_imag = a1_imag_m a2_real = a2_real_m a2_imag = a2_imag_m a3_real = a3_real_m a3_imag = a3_imag_m a4_real = a4_real_m a4_imag = a4_imag_m ! Zero amplitudes from downstream a5_real = ZERO*a5_real_p a5_imag = ZERO*a5_imag_p ! ! Adjust steady modes based on Giles' original steady formulation. ! itime = 1 ! Time-constant ! do iradius = 1,size(a1_real_m,1) ! ! Get average parts ! density_bar = density_bar_r(iradius) ! vel1_bar = vel1_bar_r(iradius) ! vel2_bar = vel2_bar_r(iradius) ! vel3_bar = vel3_bar_r(iradius) ! pressure_bar = pressure_bar_r(iradius) ! c_bar = sqrt(gam*pressure_bar/density_bar) ! ! ! starting with 2 here because the first mode is treated with 1D characteristics ! ntheta = size(a1_real_m,2) ! do itheta = 2,ntheta ! ! Account for sign(mode) in the calculation of beta. The second half of the ! ! modes are negative frequencies. ! if (itheta <= (ntheta-1)/2 + 1) then ! beta = sqrt(c_bar*c_bar - (vel3_bar*vel3_bar + vel2_bar*vel2_bar)) ! else if (itheta > (ntheta-1)/2 + 1) then ! beta = -sqrt(c_bar*c_bar - (vel3_bar*vel3_bar + vel2_bar*vel2_bar)) ! end if ! ! ! The imaginary part of beta has already been accounted for in ! ! the expressions for B2 and B3 ! B3_real = -TWO*vel3_bar*vel2_bar/(vel2_bar*vel2_bar + beta*beta) ! B3_imag = -TWO*beta*vel3_bar/(vel2_bar*vel2_bar + beta*beta) ! ! B4_real = (beta*beta - vel2_bar*vel2_bar)/(beta*beta + vel2_bar*vel2_bar) ! B4_imag = -TWO*beta*vel2_bar/(beta*beta + vel2_bar*vel2_bar) ! ! a5_real(iradius,itheta,itime) = (B3_real*a3_real_m(iradius,itheta,itime) - B3_imag*a3_imag_m(iradius,itheta,itime)) & ! A3*c3 (real) ! - (B4_real*a4_real_m(iradius,itheta,itime) - B4_imag*a4_imag_m(iradius,itheta,itime)) ! A4*c4 (real) ! a5_imag(iradius,itheta,itime) = (B3_imag*a3_real_m(iradius,itheta,itime) + B3_real*a3_imag_m(iradius,itheta,itime)) & ! A3*c3 (imag) ! - (B4_imag*a4_real_m(iradius,itheta,itime) + B4_real*a4_imag_m(iradius,itheta,itime)) ! A4*c4 (imag) ! end do !itheta ! end do !iradius else if (side=='B') then ! Zero amplitudes from upsteady ! a1_real(:,:,1) = ZERO ! a1_imag(:,:,1) = ZERO ! a2_real(:,:,1) = ZERO ! a2_imag(:,:,1) = ZERO ! a3_real(:,:,1) = ZERO ! a3_imag(:,:,1) = ZERO ! a4_real(:,:,1) = ZERO ! a4_imag(:,:,1) = ZERO ! ! a5_real(:,:,1) = a5_real_p(:,:,1) ! a5_imag(:,:,1) = a5_imag_p(:,:,1) ! Zero incoming amplitudes a1_real = ZERO a1_imag = ZERO a2_real = ZERO a2_imag = ZERO a3_real = ZERO a3_imag = ZERO a5_real = ZERO a5_imag = ZERO ! Extrapolate outgoing amplitudes a4_real = a4_real_p a4_imag = a4_imag_p ! itime = 1 ! Time-constant ! do iradius = 1,size(a1_real_m,1) ! ! Get average parts ! density_bar = density_bar_r(iradius) ! vel1_bar = vel1_bar_r(iradius) ! vel2_bar = vel2_bar_r(iradius) ! vel3_bar = vel3_bar_r(iradius) ! pressure_bar = pressure_bar_r(iradius) ! c_bar = sqrt(gam*pressure_bar/density_bar) ! ! ! starting with 2 here because the first mode is treated with 1D characteristics ! ntheta = size(a1_real_m,2) ! do itheta = 2,ntheta ! ! Account for sign(mode) in the calculation of beta. The second half of the ! ! modes are negative frequencies. ! if (itheta <= (ntheta-1)/2 + 1) then ! beta = sqrt(c_bar*c_bar - (vel3_bar*vel3_bar + vel2_bar*vel2_bar)) ! else if (itheta > (ntheta-1)/2 + 1) then ! beta = -sqrt(c_bar*c_bar - (vel3_bar*vel3_bar + vel2_bar*vel2_bar)) ! end if ! ! ! B3_real = -vel2_bar/(c_bar + vel3_bar) ! B3_imag = -beta/(c_bar + vel3_bar) ! ! B4_real = (vel2_bar*vel2_bar - beta*beta)/((c_bar + vel3_bar)**TWO) ! B4_imag = TWO*vel2_bar*beta/((c_bar + vel3_bar)**TWO) ! ! ! a1_real(iradius,itheta,itime) = ZERO ! a1_imag(iradius,itheta,itime) = ZERO ! a2_real(iradius,itheta,itime) = ZERO ! a2_imag(iradius,itheta,itime) = ZERO ! ! a3_real(iradius,itheta,itime) = (B3_real*a5_real_p(iradius,itheta,itime) - B3_imag*a5_imag_p(iradius,itheta,itime)) ! a3_imag(iradius,itheta,itime) = (B3_imag*a5_real_p(iradius,itheta,itime) + B3_real*a5_imag_p(iradius,itheta,itime)) ! ! a4_real(iradius,itheta,itime) = (B4_real*a5_real_p(iradius,itheta,itime) - B4_imag*a5_imag_p(iradius,itheta,itime)) ! a4_imag(iradius,itheta,itime) = (B4_imag*a5_real_p(iradius,itheta,itime) + B4_real*a5_imag_p(iradius,itheta,itime)) ! ! end do !itheta ! end do !iradius else call chidg_signal(FATAL,"turbo_interface_steady%apply_nonreflecting_condition: invalid input for argument 'side': 'A' or 'B'") end if end subroutine apply_nonreflecting_condition !******************************************************************************** end module bc_state_turbo_interface_steady

src/equations/fluid/bc/nonlocal/bc_state_turbo_interface_steady.f90

*DECK BQR SUBROUTINE BQR (NM, N, MB, A, T, R, IERR, NV, RV) C***BEGIN PROLOGUE BQR C***PURPOSE Compute some of the eigenvalues of a real symmetric C matrix using the QR method with shifts of origin. C***LIBRARY SLATEC (EISPACK) C***CATEGORY D4A6 C***TYPE SINGLE PRECISION (BQR-S) C***KEYWORDS EIGENVALUES, EISPACK C***AUTHOR Smith, B. T., et al. C***DESCRIPTION C C This subroutine is a translation of the ALGOL procedure BQR, C NUM. MATH. 16, 85-92(1970) by Martin, Reinsch, and Wilkinson. C HANDBOOK FOR AUTO. COMP., VOL II-LINEAR ALGEBRA, 266-272(1971). C C This subroutine finds the eigenvalue of smallest (usually) C magnitude of a REAL SYMMETRIC BAND matrix using the C QR algorithm with shifts of origin. Consecutive calls C can be made to find further eigenvalues. C C On INPUT C C NM must be set to the row dimension of the two-dimensional C array parameter, A, as declared in the calling program C dimension statement. NM is an INTEGER variable. C C N is the order of the matrix A. N is an INTEGER variable. C N must be less than or equal to NM. C C MB is the (half) band width of the matrix, defined as the C number of adjacent diagonals, including the principal C diagonal, required to specify the non-zero portion of the C lower triangle of the matrix. MB is an INTEGER variable. C MB must be less than or equal to N on first call. C C A contains the lower triangle of the symmetric band input C matrix stored as an N by MB array. Its lowest subdiagonal C is stored in the last N+1-MB positions of the first column, C its next subdiagonal in the last N+2-MB positions of the C second column, further subdiagonals similarly, and finally C its principal diagonal in the N positions of the last column. C Contents of storages not part of the matrix are arbitrary. C On a subsequent call, its output contents from the previous C call should be passed. A is a two-dimensional REAL array, C dimensioned A(NM,MB). C C T specifies the shift (of eigenvalues) applied to the diagonal C of A in forming the input matrix. What is actually determined C is the eigenvalue of A+TI (I is the identity matrix) nearest C to T. On a subsequent call, the output value of T from the C previous call should be passed if the next nearest eigenvalue C is sought. T is a REAL variable. C C R should be specified as zero on the first call, and as its C output value from the previous call on a subsequent call. C It is used to determine when the last row and column of C the transformed band matrix can be regarded as negligible. C R is a REAL variable. C C NV must be set to the dimension of the array parameter RV C as declared in the calling program dimension statement. C NV is an INTEGER variable. C C On OUTPUT C C A contains the transformed band matrix. The matrix A+TI C derived from the output parameters is similar to the C input A+TI to within rounding errors. Its last row and C column are null (if IERR is zero). C C T contains the computed eigenvalue of A+TI (if IERR is zero), C where I is the identity matrix. C C R contains the maximum of its input value and the norm of the C last column of the input matrix A. C C IERR is an INTEGER flag set to C Zero for normal return, C J if the J-th eigenvalue has not been C determined after a total of 30 iterations. C C RV is a one-dimensional REAL array of dimension NV which is C at least (2*MB**2+4*MB-3), used for temporary storage. The C first (3*MB-2) locations correspond to the ALGOL array B, C the next (2*MB-1) locations correspond to the ALGOL array H, C and the final (2*MB**2-MB) locations correspond to the MB C by (2*MB-1) ALGOL array U. C C NOTE. For a subsequent call, N should be replaced by N-1, but C MB should not be altered even when it exceeds the current N. C C Calls PYTHAG(A,B) for SQRT(A**2 + B**2). C C Questions and comments should be directed to B. S. Garbow, C Applied Mathematics Division, ARGONNE NATIONAL LABORATORY C ------------------------------------------------------------------ C C***REFERENCES B. T. Smith, J. M. Boyle, J. J. Dongarra, B. S. Garbow, C Y. Ikebe, V. C. Klema and C. B. Moler, Matrix Eigen- C system Routines - EISPACK Guide, Springer-Verlag, C 1976. C***ROUTINES CALLED PYTHAG C***REVISION HISTORY (YYMMDD) C 760101 DATE WRITTEN C 890531 Changed all specific intrinsics to generic. (WRB) C 890831 Modified array declarations. (WRB) C 890831 REVISION DATE from Version 3.2 C 891214 Prologue converted to Version 4.0 format. (BAB) C 920501 Reformatted the REFERENCES section. (WRB) C***END PROLOGUE BQR C INTEGER I,J,K,L,M,N,II,IK,JK,JM,KJ,KK,KM,LL,MB,MK,MN,MZ INTEGER M1,M2,M3,M4,NI,NM,NV,ITS,KJ1,M21,M31,IERR,IMULT REAL A(NM,*),RV(*) REAL F,G,Q,R,S,T,SCALE REAL PYTHAG C C***FIRST EXECUTABLE STATEMENT BQR IERR = 0 M1 = MIN(MB,N) M = M1 - 1 M2 = M + M M21 = M2 + 1 M3 = M21 + M M31 = M3 + 1 M4 = M31 + M2 MN = M + N MZ = MB - M1 ITS = 0 C .......... TEST FOR CONVERGENCE .......... 40 G = A(N,MB) IF (M .EQ. 0) GO TO 360 F = 0.0E0 C DO 50 K = 1, M MK = K + MZ F = F + ABS(A(N,MK)) 50 CONTINUE C IF (ITS .EQ. 0 .AND. F .GT. R) R = F IF (R + F .LE. R) GO TO 360 IF (ITS .EQ. 30) GO TO 1000 ITS = ITS + 1 C .......... FORM SHIFT FROM BOTTOM 2 BY 2 MINOR .......... IF (F .GT. 0.25E0 * R .AND. ITS .LT. 5) GO TO 90 F = A(N,MB-1) IF (F .EQ. 0.0E0) GO TO 70 Q = (A(N-1,MB) - G) / (2.0E0 * F) S = PYTHAG(Q,1.0E0) G = G - F / (Q + SIGN(S,Q)) 70 T = T + G C DO 80 I = 1, N 80 A(I,MB) = A(I,MB) - G C 90 DO 100 K = M31, M4 100 RV(K) = 0.0E0 C DO 350 II = 1, MN I = II - M NI = N - II IF (NI .LT. 0) GO TO 230 C .......... FORM COLUMN OF SHIFTED MATRIX A-G*I .......... L = MAX(1,2-I) C DO 110 K = 1, M3 110 RV(K) = 0.0E0 C DO 120 K = L, M1 KM = K + M MK = K + MZ RV(KM) = A(II,MK) 120 CONTINUE C LL = MIN(M,NI) IF (LL .EQ. 0) GO TO 135 C DO 130 K = 1, LL KM = K + M21 IK = II + K MK = MB - K RV(KM) = A(IK,MK) 130 CONTINUE C .......... PRE-MULTIPLY WITH HOUSEHOLDER REFLECTIONS .......... 135 LL = M2 IMULT = 0 C .......... MULTIPLICATION PROCEDURE .......... 140 KJ = M4 - M1 C DO 170 J = 1, LL KJ = KJ + M1 JM = J + M3 IF (RV(JM) .EQ. 0.0E0) GO TO 170 F = 0.0E0 C DO 150 K = 1, M1 KJ = KJ + 1 JK = J + K - 1 F = F + RV(KJ) * RV(JK) 150 CONTINUE C F = F / RV(JM) KJ = KJ - M1 C DO 160 K = 1, M1 KJ = KJ + 1 JK = J + K - 1 RV(JK) = RV(JK) - RV(KJ) * F 160 CONTINUE C KJ = KJ - M1 170 CONTINUE C IF (IMULT .NE. 0) GO TO 280 C .......... HOUSEHOLDER REFLECTION .......... F = RV(M21) S = 0.0E0 RV(M4) = 0.0E0 SCALE = 0.0E0 C DO 180 K = M21, M3 180 SCALE = SCALE + ABS(RV(K)) C IF (SCALE .EQ. 0.0E0) GO TO 210 C DO 190 K = M21, M3 190 S = S + (RV(K)/SCALE)**2 C S = SCALE * SCALE * S G = -SIGN(SQRT(S),F) RV(M21) = G RV(M4) = S - F * G KJ = M4 + M2 * M1 + 1 RV(KJ) = F - G C DO 200 K = 2, M1 KJ = KJ + 1 KM = K + M2 RV(KJ) = RV(KM) 200 CONTINUE C .......... SAVE COLUMN OF TRIANGULAR FACTOR R .......... 210 DO 220 K = L, M1 KM = K + M MK = K + MZ A(II,MK) = RV(KM) 220 CONTINUE C 230 L = MAX(1,M1+1-I) IF (I .LE. 0) GO TO 300 C .......... PERFORM ADDITIONAL STEPS .......... DO 240 K = 1, M21 240 RV(K) = 0.0E0 C LL = MIN(M1,NI+M1) C .......... GET ROW OF TRIANGULAR FACTOR R .......... DO 250 KK = 1, LL K = KK - 1 KM = K + M1 IK = I + K MK = MB - K RV(KM) = A(IK,MK) 250 CONTINUE C .......... POST-MULTIPLY WITH HOUSEHOLDER REFLECTIONS .......... LL = M1 IMULT = 1 GO TO 140 C .......... STORE COLUMN OF NEW A MATRIX .......... 280 DO 290 K = L, M1 MK = K + MZ A(I,MK) = RV(K) 290 CONTINUE C .......... UPDATE HOUSEHOLDER REFLECTIONS .......... 300 IF (L .GT. 1) L = L - 1 KJ1 = M4 + L * M1 C DO 320 J = L, M2 JM = J + M3 RV(JM) = RV(JM+1) C DO 320 K = 1, M1 KJ1 = KJ1 + 1 KJ = KJ1 - M1 RV(KJ) = RV(KJ1) 320 CONTINUE C 350 CONTINUE C GO TO 40 C .......... CONVERGENCE .......... 360 T = T + G C DO 380 I = 1, N 380 A(I,MB) = A(I,MB) - G C DO 400 K = 1, M1 MK = K + MZ A(N,MK) = 0.0E0 400 CONTINUE C GO TO 1001 C .......... SET ERROR -- NO CONVERGENCE TO C EIGENVALUE AFTER 30 ITERATIONS .......... 1000 IERR = N 1001 RETURN END

slatec/src/bqr.f

!==============================================================================! subroutine Turb_Mod_Vis_T_Rsm(turb) !------------------------------------------------------------------------------! ! Computes the turbulent viscosity for RSM models ('EBM' and 'HJ'). ! ! If hybrid option is used turbulent diffusivity is modeled by vis_t. ! ! Otherwise, vis_t is used as false diffusion in order to increase ! ! stability of computation. ! !------------------------------------------------------------------------------! implicit none !---------------------------------[Arguments]----------------------------------! type(Turb_Type), target :: turb !-----------------------------------[Locals]-----------------------------------! type(Field_Type), pointer :: flow type(Grid_Type), pointer :: grid type(Var_Type), pointer :: u, v, w type(Var_Type), pointer :: kin, eps type(Var_Type), pointer :: uu, vv, ww, uv, uw, vw integer :: c real :: cmu_mod !==============================================================================! ! Dimensions: ! ! ! ! production p_kin [m^2/s^3] | rate-of-strain shear [1/s] ! ! dissipation eps % n [m^2/s^3] | turb. visc. vis_t [kg/(m*s)] ! ! wall shear s. tau_wall [kg/(m*s^2)]| dyn visc. viscosity [kg/(m*s)] ! ! density density [kg/m^3] | turb. kin en. kin % n [m^2/s^2] ! ! cell volume vol [m^3] | length lf [m] ! ! left hand s. A [kg/s] | right hand s. b [kg*m^2/s^3]! ! wall visc. vis_w [kg/(m*s)] | kinematic viscosity [m^2/s] ! ! thermal cap. capacity[m^2/(s^2*K)]| therm. conductivity [kg*m/(s^3*K)]! !------------------------------------------------------------------------------! ! Take aliases flow => turb % pnt_flow grid => flow % pnt_grid call Field_Mod_Alias_Momentum(flow, u, v, w) call Turb_Mod_Alias_K_Eps (turb, kin, eps) call Turb_Mod_Alias_Stresses (turb, uu, vv, ww, uv, uw, vw) call Calculate_Shear_And_Vorticity(flow) do c = 1, grid % n_cells kin % n(c) = 0.5*max(uu % n(c) + vv % n(c) + ww % n(c), TINY) cmu_mod = max(-( uu % n(c) * u % x(c) & + vv % n(c) * v % y(c) & + ww % n(c) * w % z(c) & + uv % n(c) * (v % x(c) + u % y(c)) & + uw % n(c) * (u % z(c) + w % x(c)) & + vw % n(c) * (v % z(c) + w % y(c))) & / (kin % n(c) * turb % t_scale(c) * flow % shear(c)**2 + TINY), 0.0) cmu_mod = min(0.12, cmu_mod) turb % vis_t(c) = cmu_mod * flow % density(c) & * kin % n(c) * turb % t_scale(c) turb % vis_t(c) = max(turb % vis_t(c), TINY) end do call Grid_Mod_Exchange_Cells_Real(grid, turb % vis_t) end subroutine

Sources/Process/Turb_Mod/Vis_T_Rsm.f90

!> IMPACT !! \author Rolf Henniger, Institute of Fluid Dynamics, ETH Zurich ([email protected]) !! \date Mai 2005 - Dec 2011 !> \brief module providing functions to initiliaze and apply RestrictionOp module cmod_RestrictionOp use iso_c_binding use mpi implicit none contains subroutine MG_getCRVS( & iimax, & BC_L, & BC_U, & dd, & Nf, & bL, & bU, & xf, & cR ) bind( c, name='MG_getCRVS' ) implicit none integer(c_int), intent(in) :: iimax integer(c_int), intent(in) :: BC_L integer(c_int), intent(in) :: BC_U integer(c_int), intent(in) :: dd integer(c_int), intent(in) :: Nf integer(c_int), intent(in) :: bL, bU real(c_double), intent(in) :: xf( bL:(Nf+bU) ) real(c_double), intent(out) :: cR(-1:1,1:iimax) real(c_double) :: h(1:2) integer(c_int) :: i, ii cR = 0. !==================================================================================== !=== Restriktion, linienweise, 1d =================================================== !==================================================================================== do i = 1, iimax if( 1==dd ) then cR(-1,i) = 0. cR( 0,i) = 1. cR( 1,i) = 0. else ii = dd*(i-1)+1 h( 1 ) = xf(ii ) - xf(ii-1) h( 2 ) = xf(ii+1) - xf(ii ) cR(-1,i) = h(2)/( h(1) + h(2) )/2. ! 1./4. for equi cR( 0,i) = 1./2. cR( 1,i) = h(1)/( h(1) + h(2) )/2. ! 1./4/ for equi end if end do if( BC_L > 0 ) then cR(-1,1) = 0. cR( 0,1) = 1. cR( 1,1) = 0. end if if (BC_L == -2) then cR( 1,1) = cR( 1,1) + cR(-1,1) cR(-1,1) = 0. end if if (BC_U > 0) then cR(-1,iimax) = 0. cR( 0,iimax) = 1. cR( 1,iimax) = 0. end if if (BC_U == -2) then cR(-1,iimax) = cR( 1,iimax) + cR(-1,iimax) cR( 1,iimax) = 0. end if end subroutine MG_getCRVS subroutine MG_getCRS( & iimax, & BC_L, & BC_U, & dd, & Nf, & bL, & bU, & xf, & cR ) bind( c, name='MG_getCRS' ) implicit none integer(c_int), intent(in) :: iimax integer(c_int), intent(in) :: BC_L integer(c_int), intent(in) :: BC_U integer(c_int), intent(in) :: dd integer(c_int), intent(in) :: Nf integer(c_int), intent(in) :: bL, bU real(c_double), intent(in) :: xf( bL:(Nf+bU) ) real(c_double), intent(out) :: cR(-1:1,1:iimax) real(c_double) :: h(1:2) integer(c_int) :: i, ii cR = 0. !==================================================================================== !=== Restriktion, linienweise, 1d =================================================== !==================================================================================== do i = 1, iimax if( 1==dd ) then cR(-1,i) = 0. cR( 0,i) = 1. cR( 1,i) = 0. else ii = dd*(i-1)+1 h( 1 ) = xf(ii ) - xf(ii-1) h( 2 ) = xf(ii+1) - xf(ii ) cR(-1,i) = h(2)/( h(1) + h(2) )/2. ! 1./4. for equi cR( 0,i) = 1./2. cR( 1,i) = h(1)/( h(1) + h(2) )/2. ! 1./4/ for equi end if end do if( BC_L > 0 ) then !cR( 1,1) = cR(1,1) + cR(-1,1) ! equivalent to 0.5 0.5 cR(-1,1) = 0. cR( 0,1) = 0.5 cR( 1,1) = 0.5 end if if (BC_L == -2) then cR( 1,1) = cR( 1,1) + cR(-1,1) cR(-1,1) = 0. end if if (BC_U > 0) then cR(-1,iimax) = 0.5 cR( 0,iimax) = 0.5 cR( 1,iimax) = 0. end if if (BC_U == -2) then cR(-1,iimax) = cR( 1,iimax) + cR(-1,iimax) cR( 1,iimax) = 0. end if !! this has proven very good for generated rhs + random init !! for testing if( BC_L > 0 ) then cR(-1,1) = 0. cR( 0,1) = 1. cR( 1,1) = 0. end if if (BC_L == -2) then cR( 1,1) = cR( 1,1) + cR(-1,1) cR(-1,1) = 0. end if if (BC_U > 0) then cR(-1,iimax) = 0. cR( 0,iimax) = 1. cR( 1,iimax) = 0. end if if (BC_U == -2) then cR(-1,iimax) = cR( 1,iimax) + cR(-1,iimax) cR( 1,iimax) = 0. end if end subroutine MG_getCRS !> \brief ugly corner handling !! \deprecated subroutine MG_RestrictCorners( & Nc, & bLc,bUc, & BCL, BCU, & phif ) bind( c, name='MG_RestrictCorners' ) implicit none integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: BCL(3) integer(c_int), intent(in) :: BCU(3) real(c_double), intent(inout) :: phif (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) !if (BC(1,1,g) > 0 .and. BC(1,2,g) > 0) fine1( 1 , 1 ,1:NN(3,g)) = (fine1(2 ,1 ,1:NN(3,g)) + fine1(1 ,2 ,1:NN(3,g)))/2. !if (BC(1,1,g) > 0 .and. BC(2,2,g) > 0) fine1( 1 , NN(2,g),1:NN(3,g)) = (fine1(2 ,NN(2,g),1:NN(3,g)) + fine1(1 ,NN(2,g)-1,1:NN(3,g)))/2. !if (BC(2,1,g) > 0 .and. BC(1,2,g) > 0) fine1( NN(1,g), 1 ,1:NN(3,g)) = (fine1(NN(1,g)-1,1 ,1:NN(3,g)) + fine1(NN(1,g),2 ,1:NN(3,g)))/2. !if (BC(2,1,g) > 0 .and. BC(2,2,g) > 0) fine1( NN(1,g), NN(2,g),1:NN(3,g)) = (fine1(NN(1,g)-1,NN(2,g),1:NN(3,g)) + fine1(NN(1,g),NN(2,g)-1,1:NN(3,g)))/2. if (BCL(1) > 0 .and. BCL(2) > 0) phif( 1, 1, 1:Nc(3) ) = ( phif(1+1, 1, 1:Nc(3)) + phif(1 , 1+1, 1:Nc(3)) )/2. if (BCL(1) > 0 .and. BCU(2) > 0) phif( 1, Nc(2), 1:Nc(3) ) = ( phif(1+1, Nc(2), 1:Nc(3)) + phif(1 , Nc(2)-1, 1:Nc(3)) )/2. if (BCU(1) > 0 .and. BCL(2) > 0) phif( Nc(1), 1, 1:Nc(3) ) = ( phif(Nc(1)-1, 1, 1:Nc(3)) + phif(Nc(1), 1+1, 1:Nc(3)) )/2. if (BCU(1) > 0 .and. BCU(2) > 0) phif( Nc(1), Nc(2), 1:Nc(3) ) = ( phif(Nc(1)-1, Nc(2), 1:Nc(3)) + phif(Nc(1), Nc(2)-1, 1:Nc(3)) )/2. !if (BC(1,1,g) > 0 .and. BC(1,3,g) > 0) fine1( 1 ,1:NN(2,g), 1 ) = (fine1(2 ,1:NN(2,g),1 ) + fine1(1 ,1:NN(2,g),2 ))/2. !if (BC(1,1,g) > 0 .and. BC(2,3,g) > 0) fine1( 1 ,1:NN(2,g), NN(3,g)) = (fine1(2 ,1:NN(2,g),NN(3,g)) + fine1(1 ,1:NN(2,g),NN(3,g)-1))/2. !if (BC(2,1,g) > 0 .and. BC(1,3,g) > 0) fine1( NN(1,g),1:NN(2,g), 1 ) = (fine1(NN(1,g)-1,1:NN(2,g),1 ) + fine1(NN(1,g),1:NN(2,g),2 ))/2. !if (BC(2,1,g) > 0 .and. BC(2,3,g) > 0) fine1( NN(1,g),1:NN(2,g), NN(3,g)) = (fine1(NN(1,g)-1,1:NN(2,g),NN(3,g)) + fine1(NN(1,g),1:NN(2,g),NN(3,g)-1))/2. if (BCL(1) > 0 .and. BCL(3) > 0) phif( 1, 1:Nc(2), 1 ) = ( phif(1+1, 1:Nc(2), 1 ) + phif(1, 1:Nc(2), 1+1) )/2. if (BCL(1) > 0 .and. BCU(3) > 0) phif( 1, 1:Nc(2), Nc(3) ) = ( phif(1+1, 1:Nc(2), Nc(3)) + phif(1, 1:Nc(2), Nc(3)-1) )/2. if (BCU(1) > 0 .and. BCL(3) > 0) phif( Nc(1), 1:Nc(2), 1 ) = ( phif(Nc(1)-1, 1:Nc(2), 1 ) + phif(Nc(1), 1:Nc(2), 1+1) )/2. if (BCU(1) > 0 .and. BCU(3) > 0) phif( Nc(1), 1:Nc(2), Nc(3) ) = ( phif(Nc(1)-1, 1:Nc(2), Nc(3)) + phif(Nc(1), 1:Nc(2), Nc(3)-1) )/2. !if (BC(1,2,g) > 0 .and. BC(1,3,g) > 0) fine1(1:NN(1,g), 1 , 1 ) = (fine1(1:NN(1,g),2 ,1 ) + fine1(1:NN(1,g),1 ,2 ))/2. !if (BC(1,2,g) > 0 .and. BC(2,3,g) > 0) fine1(1:NN(1,g), 1 , NN(3,g)) = (fine1(1:NN(1,g),2 ,NN(3,g)) + fine1(1:NN(1,g),1 ,NN(3,g)-1))/2. !if (BC(2,2,g) > 0 .and. BC(1,3,g) > 0) fine1(1:NN(1,g), NN(2,g), 1 ) = (fine1(1:NN(1,g),NN(2,g)-1,1 ) + fine1(1:NN(1,g),NN(2,g),2 ))/2. !if (BC(2,2,g) > 0 .and. BC(2,3,g) > 0) fine1(1:NN(1,g), NN(2,g), NN(3,g)) = (fine1(1:NN(1,g),NN(2,g)-1,NN(3,g)) + fine1(1:NN(1,g),NN(2,g),NN(3,g)-1))/2. if (BCL(2) > 0 .and. BCL(3) > 0) phif( 1:Nc(1), 1, 1 ) = ( phif(1:Nc(1), 1+1, 1 ) + phif(1:Nc(1), 1, 1+1 ) )/2. if (BCL(2) > 0 .and. BCU(3) > 0) phif( 1:Nc(1), 1, Nc(3) ) = ( phif(1:Nc(1), 1+1, Nc(3)) + phif(1:Nc(1), 1, Nc(3)-1) )/2. if (BCU(2) > 0 .and. BCL(3) > 0) phif( 1:Nc(1), Nc(2), 1 ) = ( phif(1:Nc(1), Nc(2)-1, 1 ) + phif(1:Nc(1), Nc(2), 1+1 ) )/2. if (BCU(2) > 0 .and. BCU(3) > 0) phif( 1:Nc(1), Nc(2), Nc(3) ) = ( phif(1:Nc(1), Nc(2)-1, Nc(3)) + phif(1:Nc(1), Nc(2), Nc(3)-1) )/2. end subroutine MG_RestrictCorners !> \note: - für allgemeine di, dj, dk geeignet !! - überlappende Schicht in Blöcken wird (der Einfachheit !! halber) ebenfalls ausgetauscht, ist aber im Prinzip !! redundant (genauer: phiC(S1R:N1R,S2R:N2R,S3R:N3R) = ...). !! - Motivation für diese kurze Routine ist die Möglichkeit, !! auch Varianten wie Full-Weighting etc. ggf. einzubauen, !! ansonsten könnte sie auch eingespaart werden. !! - Die Block-überlappenden Stirnflächen werden ebenfalls !! mitverarbeitet, aber eigentlich nicht gebraucht !! (erleichtert die Programmierung), so dass eine !! Initialisierung notwendig ist. Dies wiederum bedingt die !! INTENT(inout)-Deklaration. subroutine MG_restrictHW( & dimens, & Nf, & bLf,bUf, & Nc, & bLc,bUc, & iimax, & dd, & cR1,cR2,cR3, & phif, & phic ) bind(c,name='MG_restrictHW') implicit none integer(c_int), intent(in) :: dimens integer(c_int), intent(in) :: Nf(3) integer(c_int), intent(in) :: bLf(3) integer(c_int), intent(in) :: bUf(3) integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: iimax(3) integer(c_int), intent(in) :: dd(3) real(c_double), intent(in) :: cR1 ( -1:1, 1:iimax(1) ) real(c_double), intent(in) :: cR2 ( -1:1, 1:iimax(2) ) real(c_double), intent(in) :: cR3 ( -1:1, 1:iimax(3) ) real(c_double), intent(in) :: phif (bLf(1):(Nf(1)+bUf(1)),bLf(2):(Nf(2)+bUf(2)),bLf(3):(Nf(3)+bUf(3))) real(c_double), intent(out) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) integer(c_int) :: i, ii integer(c_int) :: j, jj integer(c_int) :: k, kk if (dimens == 3) then do kk = 1, iimax(3) k = dd(3)*(kk-1)+1 do jj = 1, iimax(2) j = dd(2)*(jj-1)+1 do ii = 1, iimax(1) i = dd(1)*(ii-1)+1 phic(ii,jj,kk) = ((cR1( 0,ii)+cR2( 0,jj)+cR3( 0,kk))*phif(i ,j ,k ) + & & cR1(-1,ii) *phif(i-1,j ,k ) + & & cR1( 1,ii) *phif(i+1,j ,k ) + & & cR2(-1,jj) *phif(i ,j-1,k ) + & & cR2( 1,jj) *phif(i ,j+1,k ) + & & cR3(-1,kk)*phif(i ,j ,k-1) + & & cR3( 1,kk)*phif(i ,j ,k+1)) / 3. end do end do end do else k = 1 kk = 1 do jj = 1, iimax(2) j = dd(2)*(jj-1)+1 do ii = 1, iimax(1) i = dd(1)*(ii-1)+1 phic(ii,jj,kk) = ((cR1( 0,ii)+cR2(0,jj))*phif(i ,j ,k) + & & cR1(-1,ii) *phif(i-1,j ,k) + & & cR1( 1,ii) *phif(i+1,j ,k) + & & cR2(-1,jj)*phif(i ,j-1,k) + & & cR2( 1,jj)*phif(i ,j+1,k)) / 2. end do end do end if end subroutine MG_restrictHW subroutine MG_RestrictGather( & Nc, & bLc,bUc, & bCL_loc, & bCL_glo, & iimax, & n_gather, & participate_yes, & rankc2, & comm2, & recvR, & dispR, & sizsR, & offsR, & phic ) bind(c,name='MG_RestrictGather') implicit none integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: bCL_loc(3) integer(c_int), intent(in) :: bCL_glo(3) integer(c_int), intent(in) :: iimax(3) integer(c_int), intent(in) :: n_gather(3) logical(c_bool), intent(in) :: participate_yes integer(c_int), intent(in) :: rankc2 integer(c_int), intent(in) :: comm2 integer(c_int), intent(in) :: recvR( 1:n_gather(1)*n_gather(2)*n_gather(3) ) integer(c_int), intent(in) :: dispR( 1:n_gather(1)*n_gather(2)*n_gather(3) ) integer(c_int), intent(in) :: sizsR(1:3, 1:n_gather(1)*n_gather(2)*n_gather(3) ) integer(c_int), intent(in) :: offsR(1:3, 1:n_gather(1)*n_gather(2)*n_gather(3) ) real(c_double),intent(inout) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) integer(c_int) :: i, ii integer(c_int) :: j, jj integer(c_int) :: k, kk integer(c_int) :: merror real(c_double), allocatable :: sendbuf(:,:,:) integer(c_int) :: sizsg(1:3), offsg(1:3), dispg real(c_double) :: recvbuf( 1:( Nc(1)*Nc(2)*Nc(3)*3 ) ) integer(c_int) :: SS(3) !if (n_gather(1)*n_gather(2)*n_gather(3) > 1) then SS(:) = 1 if( 0<BCL_loc(1) ) SS(1) = 0 if( 0<BCL_loc(2) ) SS(2) = 0 if( 0<BCL_loc(3) ) SS(3) = 0 ! Anmerkung: Besser nicht fest allocieren um Speicherplatz zu sparen, ODER ! gleich "phic" verwenden! allocate(sendbuf(SS(1):iimax(1),SS(2):iimax(2),SS(3):iimax(3))) do kk = SS(3), iimax(3) do jj = SS(2), iimax(2) do ii = SS(1), iimax(1) sendbuf(ii,jj,kk) = phic(ii,jj,kk) end do end do end do call MPI_GATHERv( & sendbuf, & ! starting address of send buffer (choice) (iimax(1)-SS(1)+1)*(iimax(2)-SS(2)+1)*(iimax(3)-SS(3)+1), & ! of elements in send buffer MPI_REAL8, & ! data type of send buffer elements recvbuf, & ! address of receive buffer recvR, & ! non-negative integer array (of length group size) containing the number of elements that are received from each process dispR, & ! integer array (of length group size). Entry i specifies the displacement (relative to recvbuf) at which to place the incoming data from process i MPI_REAL8, & ! data type of receive buffer elements (handle) rankc2, & ! rank of receiving process comm2, & ! communicator merror) deallocate(sendbuf) if( participate_yes ) then do k = 1, n_gather(3) do j = 1, n_gather(2) do i = 1, n_gather(1) sizsg(1:3) = sizsR(1:3,i+(j-1)*n_gather(1)+(k-1)*n_gather(1)*n_gather(2)) offsg(1:3) = offsR(1:3,i+(j-1)*n_gather(1)+(k-1)*n_gather(1)*n_gather(2)) dispg = dispR( i+(j-1)*n_gather(1)+(k-1)*n_gather(1)*n_gather(2)) if( 1==i .and. 0<BCL_glo(1) ) offsg(1) = -1 if( 1==j .and. 0<BCL_glo(2) ) offsg(2) = -1 if( 1==k .and. 0<BCL_glo(3) ) offsg(3) = -1 do kk = 1, sizsg(3) do jj = 1, sizsg(2) do ii = 1, sizsg(1) phic(ii+offsg(1),jj+offsg(2),kk+offsg(3)) = recvbuf(dispg+ii+(jj-1)*sizsg(1)+(kk-1)*sizsg(1)*sizsg(2)) end do end do end do end do end do end do end if end subroutine MG_RestrictGather !> restriction !! \note - für allgemeine di, dj, dk geeignet! !! - überlappende Schicht in Blöcken wird (der Einfachheit halber) ebenfalls ausgetauscht, ist !! aber im Prinzip redundant (genauer: phiC(S1R:N1R,S2R:N2R,S3R:N3R) = ...). !! - Motivation für diese kurze Routine ist die Möglichkeit, auch Varianten wie Full-Weighting !! etc. ggf. einzubauen, ansonsten könnte sie auch eingespaart werden. !! - Die Block-überlappenden Stirnflächen werden ebenfalls mitverarbeitet, aber eigentlich !! nicht gebraucht (erleichtert die Programmierung), so dass eine Initialisierung notwendig !! ist. Dies wiederum bedingt die INTENT(inout)-Deklaration. subroutine MG_restrictFW( & dimens, & Nf, & bLf,bUf, & Nc, & bLc,bUc, & iimax, & dd, & cR1,cR2,cR3, & phif, & phic ) bind(c,name='MG_restrictFW') implicit none integer(c_int), intent(in) :: dimens integer(c_int), intent(in) :: Nf(3) integer(c_int), intent(in) :: bLf(3) integer(c_int), intent(in) :: bUf(3) integer(c_int), intent(in) :: Nc(3) integer(c_int), intent(in) :: bLc(3) integer(c_int), intent(in) :: bUc(3) integer(c_int), intent(in) :: iimax(3) integer(c_int), intent(in) :: dd(3) real(c_double), intent(in) :: cR1 ( -1:1, 1:iimax(1) ) real(c_double), intent(in) :: cR2 ( -1:1, 1:iimax(2) ) real(c_double), intent(in) :: cR3 ( -1:1, 1:iimax(3) ) real(c_double), intent(in) :: phif (bLf(1):(Nf(1)+bUf(1)),bLf(2):(Nf(2)+bUf(2)),bLf(3):(Nf(3)+bUf(3))) real(c_double), intent(out) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) integer(c_int) :: i, ii integer(c_int) :: j, jj integer(c_int) :: k, kk if( dimens == 3 ) then do kk = 1, iimax(3) k = dd(3)*(kk-1)+1 do jj = 1, iimax(2) j = dd(2)*(jj-1)+1 do ii = 1, iimax(1) i = dd(1)*(ii-1)+1 phic(ii,jj,kk) = & & cR1(-1,ii)*cR2(-1,jj)*cR3(-1,kk)*phif(i-1,j-1,k-1) + & & cR1( 0,ii)*cR2(-1,jj)*cR3(-1,kk)*phif(i ,j-1,k-1) + & & cR1(+1,ii)*cR2(-1,jj)*cR3(-1,kk)*phif(i+1,j-1,k-1) + & ! & cR1(-1,ii)*cR2( 0,jj)*cR3(-1,kk)*phif(i-1,j ,k-1) + & & cR1( 0,ii)*cR2( 0,jj)*cR3(-1,kk)*phif(i ,j ,k-1) + & & cR1(+1,ii)*cR2( 0,jj)*cR3(-1,kk)*phif(i+1,j ,k-1) + & ! & cR1(-1,ii)*cR2(+1,jj)*cR3(-1,kk)*phif(i-1,j+1,k-1) + & & cR1( 0,ii)*cR2(+1,jj)*cR3(-1,kk)*phif(i ,j+1,k-1) + & & cR1(+1,ii)*cR2(+1,jj)*cR3(-1,kk)*phif(i+1,j+1,k-1) + & ! & cR1(-1,ii)*cR2(-1,jj)*cR3( 0,kk)*phif(i-1,j-1,k ) + & & cR1( 0,ii)*cR2(-1,jj)*cR3( 0,kk)*phif(i ,j-1,k ) + & & cR1(+1,ii)*cR2(-1,jj)*cR3( 0,kk)*phif(i+1,j-1,k ) + & ! & cR1(-1,ii)*cR2( 0,jj)*cR3( 0,kk)*phif(i-1,j ,k ) + & & cR1( 0,ii)*cR2( 0,jj)*cR3( 0,kk)*phif(i ,j ,k ) + & & cR1(+1,ii)*cR2( 0,jj)*cR3( 0,kk)*phif(i+1,j ,k ) + & ! & cR1(-1,ii)*cR2(+1,jj)*cR3( 0,kk)*phif(i-1,j+1,k ) + & & cR1( 0,ii)*cR2(+1,jj)*cR3( 0,kk)*phif(i ,j+1,k ) + & & cR1(+1,ii)*cR2(+1,jj)*cR3( 0,kk)*phif(i+1,j+1,k ) + & ! ! & cR1(-1,ii)*cR2(-1,jj)*cR3(+1,kk)*phif(i-1,j-1,k+1) + & & cR1( 0,ii)*cR2(-1,jj)*cR3(+1,kk)*phif(i ,j-1,k+1) + & & cR1(+1,ii)*cR2(-1,jj)*cR3(+1,kk)*phif(i+1,j-1,k+1) + & ! & cR1(-1,ii)*cR2( 0,jj)*cR3(+1,kk)*phif(i-1,j ,k+1) + & & cR1( 0,ii)*cR2( 0,jj)*cR3(+1,kk)*phif(i ,j ,k+1) + & & cR1(+1,ii)*cR2( 0,jj)*cR3(+1,kk)*phif(i+1,j ,k+1) + & ! & cR1(-1,ii)*cR2(+1,jj)*cR3(+1,kk)*phif(i-1,j+1,k+1) + & & cR1( 0,ii)*cR2(+1,jj)*cR3(+1,kk)*phif(i ,j+1,k+1) + & & cR1(+1,ii)*cR2(+1,jj)*cR3(+1,kk)*phif(i+1,j+1,k+1) end do end do end do else k = 1 kk = 1 do jj = 1, iimax(2) j = dd(2)*(jj-1)+1 do ii = 1, iimax(1) i = dd(1)*(ii-1)+1 phic(ii,jj,kk) = & & cR1(-1,ii)*cR2(-1,jj)*phif(i-1,j-1,k) + & & cR1( 0,ii)*cR2(-1,jj)*phif(i ,j-1,k) + & & cR1(+1,ii)*cR2(-1,jj)*phif(i+1,j-1,k) + & ! & cR1(-1,ii)*cR2( 0,jj)*phif(i-1,j ,k) + & & cR1( 0,ii)*cR2( 0,jj)*phif(i ,j ,k) + & & cR1(+1,ii)*cR2( 0,jj)*phif(i+1,j ,k) + & ! & cR1(-1,ii)*cR2(+1,jj)*phif(i-1,j+1,k) + & & cR1( 0,ii)*cR2(+1,jj)*phif(i ,j+1,k) + & & cR1(+1,ii)*cR2(+1,jj)*phif(i+1,j+1,k) end do end do end if end subroutine MG_restrictFW !!> \note - Null-Setzen am Rand nicht notwendig! !!! - Da nur in Richtung der jeweiligen Geschwindigkeitskomponente !!! gemittelt wird, muss nicht die spezialisierte Helmholtz-Variante !!! aufgerufen werden. !!! - Austauschrichtung ist invers zu ex1, ex2, ex3. Bei mehreren Blöcken !!! wird auch der jeweils redundante "überlappende" Punkt aufgrund der !!! zu grossen Intervallgrenzen (1:iimax) zwar berechnet, aber aufgrund !!! des Einweg-Austauschs falsch berechnet! Dieses Vorgehen wurde !!! bislang aus übersichtsgründen vorgezogen, macht aber eine !!! Initialisierung notwendig. !!! Dabei werden Intervalle der Form 0:imax anstelle von 1:imax !!! bearbeitet, da hier nur die das feinste Geschwindigkeitsgitter !!! behandelt wird! !!! - INTENT(inout) ist bei den feinen Gittern notwendig, da Ghost-Werte !!! ausgetauscht werden müssen. !!! - Zuviele Daten werden ausgetauscht; eigentlich müsste in der !!! Grenzfläche nur jeder 4. Punkt behandelt werden (4x zuviel!). !!! Leider etwas unschön, könnte aber durch eine spezialisierte !!! Austauschroutine behandelt werden, da das übergeben von Feldern mit !!! Intervallen von b1L:(iimax+b1U) nur sehr schlecht funktionieren !!! würde (d.h. mit Umkopieren). !subroutine MG_restrictFWV( & !dimens, & !dir, & !Nf, & !bLf,bUf, & !SSf,NNf, & !Nc, & !bLc,bUc, & !SSc,NNc, & !iimax, & !dd, & !cRV, & !cR1,cR2,cR3, & !phif, & !phic ) bind (c,name='MG_restrictFWV') !implicit none !integer(c_int), intent(in) :: dimens !integer(c_int), intent(in) :: dir !integer(c_int), intent(in) :: Nf(1:3) !integer(c_int), intent(in) :: bLf(1:3) !integer(c_int), intent(in) :: bUf(1:3) !integer(c_int), intent(in) :: SSf(1:3) !integer(c_int), intent(in) :: NNf(1:3) !integer(c_int), intent(in) :: Nc(1:3) !integer(c_int), intent(in) :: bLc(1:3) !integer(c_int), intent(in) :: bUc(1:3) !integer(c_int), intent(in) :: SSc(1:3) !integer(c_int), intent(in) :: NNc(1:3) !integer(c_int), intent(in) :: iimax(1:3) !integer(c_int), intent(in) :: dd(1:3) !real(c_double), intent(in) :: cRV ( 1:2, 0:iimax(dir) ) !real(c_double), intent(in) :: cR1 ( -1:1, 1:iimax(1) ) !real(c_double), intent(in) :: cR2 ( -1:1, 1:iimax(2) ) !real(c_double), intent(in) :: cR3 ( -1:1, 1:iimax(3) ) !real(c_double), intent(in) :: phif (bLf(1):(Nf(1)+bUf(1)),bLf(2):(Nf(2)+bUf(2)),bLf(3):(Nf(3)+bUf(3))) !real(c_double), intent(out) :: phic (bLc(1):(Nc(1)+bUc(1)),bLc(2):(Nc(2)+bUc(2)),bLc(3):(Nc(3)+bUc(3))) !integer(c_int) :: i, ii !integer(c_int) :: j, jj !integer(c_int) :: k, kk !! TEST!!! Test schreiben, um n_gather(:,2) .GT. 1 hier zu vermeiden! !! Gleiches gilt natürlich für die Interpolation. !!==================================================================================== !if( 1==dir ) then !if( 2==dimens ) then !!write(*,*) !!do kk = SSc(3), iimax(3) !!k = kk !!do jj = SSc(2), iimax(2) !!j = dd(2)*(jj-1)+1 !!do ii = SSc(1), iimax(1) !!!i = max( dd(1)*(ii-1)+1, 0 ) !!i = dd(1)*(ii-1)+1 !!!write(*,*) jj, j !!if( 1==dd(1) ) then !!!phic(ii,jj,kk) = & !!!& cR2( -1, jj)*phif(i,j-1,k ) + & !!!& cR2( 0, jj)*phif(i,j ,k ) + & !!!& cR2( +1, jj)*phif(i,j+1,k ) !!!! !!else !!!phic(ii,jj,kk) = & !!!& cRV(1,ii)*cR2(-1,jj)*phif(i ,j-1,k ) + & !!!& cRV(2,ii)*cR2(-1,jj)*phif(i+1,j-1,k ) + & !!!! !!!& cRV(1,ii)*cR2( 0,jj)*phif(i ,j ,k ) + & !!!& cRV(2,ii)*cR2( 0,jj)*phif(i+1,j ,k ) + & !!!! !!!& cRV(1,ii)*cR2(+1,jj)*phif(i ,j+1,k ) + & !!!& cRV(2,ii)*cR2(+1,jj)*phif(i+1,j+1,k ) !!!! !!end if !!end do !!end do !!end do !else !do kk = SSc(3), iimax(3) !k = dd(3)*(kk-1)+1 !do jj = SSc(2), iimax(2) !j = dd(2)*(jj-1)+1 !do ii = SSc(1), iimax(1) !!i = max( dd(1)*(ii-1)+1, 0 ) !i = dd(1)*(ii-1)+1 !if( 1==dd(1) ) then !!phic(ii,jj,kk) = & !!& cR2( -1, jj)*cR3(-1,kk)*phif(i,j-1,k-1) + & !!& cR2( 0, jj)*cR3(-1,kk)*phif(i,j ,k-1) + & !!& cR2( +1, jj)*cR3(-1,kk)*phif(i,j+1,k-1) + & !!! !!& cR2( -1, jj)*cR3( 0,kk)*phif(i,j-1,k ) + & !!& cR2( 0, jj)*cR3( 0,kk)*phif(i,j ,k ) + & !!& cR2( +1, jj)*cR3( 0,kk)*phif(i,j+1,k ) + & !!! !!& cR2( -1, jj)*cR3(+1,kk)*phif(i,j-1,k+1) + & !!& cR2( 0, jj)*cR3(+1,kk)*phif(i,j ,k+1) + & !!& cR2( +1, jj)*cR3(+1,kk)*phif(i,j+1,k+1) !else !!phic(ii,jj,kk) = & !!& cRV(1,ii)*cR2(-1,jj)*cR3(-1,kk)*phif(i ,j-1,k-1) + & !!& cRV(2,ii)*cR2(-1,jj)*cR3(-1,kk)*phif(i+1,j-1,k-1) + & !!! !!& cRV(1,ii)*cR2( 0,jj)*cR3(-1,kk)*phif(i ,j ,k-1) + & !!& cRV(2,ii)*cR2( 0,jj)*cR3(-1,kk)*phif(i+1,j ,k-1) + & !!! !!& cRV(1,ii)*cR2(+1,jj)*cR3(-1,kk)*phif(i ,j+1,k-1) + & !!& cRV(2,ii)*cR2(+1,jj)*cR3(-1,kk)*phif(i+1,j+1,k-1) + & !!! !!& cRV(1,ii)*cR2(-1,jj)*cR3( 0,kk)*phif(i ,j-1,k ) + & !!& cRV(2,ii)*cR2(-1,jj)*cR3( 0,kk)*phif(i+1,j-1,k ) + & !!! !!& cRV(1,ii)*cR2( 0,jj)*cR3( 0,kk)*phif(i ,j ,k ) + & !!& cRV(2,ii)*cR2( 0,jj)*cR3( 0,kk)*phif(i+1,j ,k ) + & !!! !!& cRV(1,ii)*cR2(+1,jj)*cR3( 0,kk)*phif(i ,j+1,k ) + & !!& cRV(2,ii)*cR2(+1,jj)*cR3( 0,kk)*phif(i+1,j+1,k ) + & !!! !!& cRV(1,ii)*cR2(-1,jj)*cR3(+1,kk)*phif(i ,j-1,k+1) + & !!& cRV(2,ii)*cR2(-1,jj)*cR3(+1,kk)*phif(i+1,j-1,k+1) + & !!! !!& cRV(1,ii)*cR2( 0,jj)*cR3(+1,kk)*phif(i ,j ,k+1) + & !!& cRV(2,ii)*cR2( 0,jj)*cR3(+1,kk)*phif(i+1,j ,k+1) + & !!! !!& cRV(1,ii)*cR2(+1,jj)*cR3(+1,kk)*phif(i ,j+1,k+1) + & !!& cRV(2,ii)*cR2(+1,jj)*cR3(+1,kk)*phif(i+1,j+1,k+1) !end if !end do !end do !end do !end if !end if !!==================================================================================== !if( 2==dir ) then !!if( 2==dimens ) then !!do kk = SSc(3), iimax(3) !!k = kk !!do jj = SSc(2), iimax(2) !!!j = dd(2)*(jj-1)+1 !!j = dd(2)*(jj-1)+1 !!do ii = SSc(1), iimax(1) !!i = dd(1)*(ii-1)+1 !!if( 1==dd(2) ) then !!phic(ii,jj,kk) = & !!& cR1( -1, ii)*phif(i-1,j,k ) + & !!& cR1( 0, ii)*phif(i ,j,k ) + & !!& cR1( +1, ii)*phif(i+1,j,k ) !!else !!phic(ii,jj,kk) = & !!& cR1(-1,ii)*cRV(1,jj)*phif(i-1,j ,k ) + & !!& cR1( 0,ii)*cRV(1,jj)*phif(i ,j ,k ) + & !!& cR1(+1,ii)*cRV(1,jj)*phif(i+1,j ,k ) + & !!! !!& cR1(-1,ii)*cRV(2,jj)*phif(i-1,j+1,k ) + & !!& cR1( 0,ii)*cRV(2,jj)*phif(i ,j+1,k ) + & !!& cR1(+1,ii)*cRV(2,jj)*phif(i+1,j+1,k ) !!end if !!end do !!end do !!end do !!else !!do kk = SSc(3), iimax(3) !!k = dd(3)*(kk-1)+1 !!do jj = SSc(2), iimax(2) !!j = dd(2)*(jj-1)+1 !!do ii = SSc(1), iimax(1) !!i = dd(1)*(ii-1)+1 !!if( 1==dd(2) ) then !!phic(ii,jj,kk) = & !!& cR1( -1, ii)*cR3(-1,kk)*phif(i-1,j,k-1) + & !!& cR1( 0, ii)*cR3(-1,kk)*phif(i ,j,k-1) + & !!& cR1( +1, ii)*cR3(-1,kk)*phif(i+1,j,k-1) + & !!! !!& cR1( -1, ii)*cR3( 0,kk)*phif(i-1,j,k ) + & !!& cR1( 0, ii)*cR3( 0,kk)*phif(i ,j,k ) + & !!& cR1( +1, ii)*cR3( 0,kk)*phif(i+1,j,k ) + & !!! !!& cR1( -1, ii)*cR3(+1,kk)*phif(i-1,j,k+1) + & !!& cR1( 0, ii)*cR3(+1,kk)*phif(i ,j,k+1) + & !!& cR1( +1, ii)*cR3(+1,kk)*phif(i+1,j,k+1) !!else !!phic(ii,jj,kk) = & !!& cR1(-1,ii)*cRV(1,jj)*cR3(-1,kk)*phif(i-1,j ,k-1) + & !!& cR1( 0,ii)*cRV(1,jj)*cR3(-1,kk)*phif(i ,j ,k-1) + & !!& cR1(+1,ii)*cRV(1,jj)*cR3(-1,kk)*phif(i+1,j ,k-1) + & !!! !!& cR1(-1,ii)*cRV(2,jj)*cR3(-1,kk)*phif(i-1,j+1,k-1) + & !!& cR1( 0,ii)*cRV(2,jj)*cR3(-1,kk)*phif(i ,j+1,k-1) + & !!& cR1(+1,ii)*cRV(2,jj)*cR3(-1,kk)*phif(i+1,j+1,k-1) + & !!! !!& cR1(-1,ii)*cRV(1,jj)*cR3( 0,kk)*phif(i-1,j ,k ) + & !!& cR1( 0,ii)*cRV(1,jj)*cR3( 0,kk)*phif(i ,j ,k ) + & !!& cR1(+1,ii)*cRV(1,jj)*cR3( 0,kk)*phif(i+1,j ,k ) + & !!! !!& cR1(-1,ii)*cRV(2,jj)*cR3( 0,kk)*phif(i-1,j+1,k ) + & !!& cR1( 0,ii)*cRV(2,jj)*cR3( 0,kk)*phif(i ,j+1,k ) + & !!& cR1(+1,ii)*cRV(2,jj)*cR3( 0,kk)*phif(i+1,j+1,k ) + & !!! !!& cR1(-1,ii)*cRV(1,jj)*cR3(+1,kk)*phif(i-1,j ,k+1) + & !!& cR1( 0,ii)*cRV(1,jj)*cR3(+1,kk)*phif(i ,j ,k+1) + & !!& cR1(+1,ii)*cRV(1,jj)*cR3(+1,kk)*phif(i+1,j ,k+1) + & !!! !!& cR1(-1,ii)*cRV(2,jj)*cR3(+1,kk)*phif(i-1,j+1,k+1) + & !!& cR1( 0,ii)*cRV(2,jj)*cR3(+1,kk)*phif(i ,j+1,k+1) + & !!& cR1(+1,ii)*cRV(2,jj)*cR3(+1,kk)*phif(i+1,j+1,k+1) !!end if !!end do !!end do !!end do !!end if !end if !!==================================================================================== !if( 3==dimens .and. dir==3 ) then !do kk = SSc(3), iimax(3) !k = dd(3)*(kk-1)+1 !do jj = SSc(2), iimax(2) !j = dd(2)*(jj-1)+1 !do ii = SSc(1), iimax(1) !i = dd(1)*(ii-1)+1 !if( 1==dd(3) ) then !phic(ii,jj,kk) = & !& cR1(-1,ii)*cR2(-1,jj)*phif(i-1,j-1,k) + & !& cR1( 0,ii)*cR2(-1,jj)*phif(i ,j-1,k) + & !& cR1(+1,ii)*cR2(-1,jj)*phif(i+1,j-1,k) + & !! !& cR1(-1,ii)*cR2( 0,jj)*phif(i-1,j ,k) + & !& cR1( 0,ii)*cR2( 0,jj)*phif(i ,j ,k) + & !& cR1(+1,ii)*cR2( 0,jj)*phif(i+1,j ,k) + & !! !& cR1(-1,ii)*cR2(+1,jj)*phif(i-1,j+1,k) + & !& cR1( 0,ii)*cR2(+1,jj)*phif(i ,j+1,k) + & !& cR1(+1,ii)*cR2(+1,jj)*phif(i+1,j+1,k) !else !phic(ii,jj,kk) = & !& cR1(-1,ii)*cR2(-1,jj)*cRV(1,kk)*phif(i-1,j-1,k ) + & !& cR1( 0,ii)*cR2(-1,jj)*cRV(1,kk)*phif(i ,j-1,k ) + & !& cR1(+1,ii)*cR2(-1,jj)*cRV(1,kk)*phif(i+1,j-1,k ) + & !! !& cR1(-1,ii)*cR2(-1,jj)*cRV(2,kk)*phif(i-1,j-1,k+1) + & !& cR1( 0,ii)*cR2(-1,jj)*cRV(2,kk)*phif(i ,j-1,k+1) + & !& cR1(+1,ii)*cR2(-1,jj)*cRV(2,kk)*phif(i+1,j-1,k+1) + & !! !& cR1(-1,ii)*cR2( 0,jj)*cRV(1,kk)*phif(i-1,j ,k ) + & !& cR1( 0,ii)*cR2( 0,jj)*cRV(1,kk)*phif(i ,j ,k ) + & !& cR1(+1,ii)*cR2( 0,jj)*cRV(1,kk)*phif(i+1,j ,k ) + & !! !& cR1(-1,ii)*cR2( 0,jj)*cRV(2,kk)*phif(i-1,j ,k+1) + & !& cR1( 0,ii)*cR2( 0,jj)*cRV(2,kk)*phif(i ,j ,k+1) + & !& cR1(+1,ii)*cR2( 0,jj)*cRV(2,kk)*phif(i+1,j ,k+1) + & !! !& cR1(-1,ii)*cR2(+1,jj)*cRV(1,kk)*phif(i-1,j+1,k ) + & !& cR1( 0,ii)*cR2(+1,jj)*cRV(1,kk)*phif(i ,j+1,k ) + & !& cR1(+1,ii)*cR2(+1,jj)*cRV(1,kk)*phif(i+1,j+1,k ) + & !! !& cR1(-1,ii)*cR2(+1,jj)*cRV(2,kk)*phif(i-1,j+1,k+1) + & !& cR1( 0,ii)*cR2(+1,jj)*cRV(2,kk)*phif(i ,j+1,k+1) + & !& cR1(+1,ii)*cR2(+1,jj)*cRV(2,kk)*phif(i+1,j+1,k+1) !end if !end do !end do !end do !end if !!=========================================================================================== !end subroutine MG_restrictFWV end module cmod_RestrictionOp

src/src_f/cmod_RestrictionOp.f90

c ====================================================================== c User Subroutine VUMAT for Johnson-Cook model. c All rights of reproduction or distribution in any form are reserved. c By Irfan Habeeb CN (PhD, Technion - IIT) c ====================================================================== subroutine vumat( C Read only - 1 nblock, ndir, nshr, nstatev, nfieldv, nprops, lanneal, 2 stepTime, totalTime, dt, cmname, coordMp, charLength, 3 props, density, strainInc, relSpinInc, 4 tempOld, stretchOld, defgradOld, fieldOld, 5 stressOld, stateOld, enerInternOld, enerInelasOld, 6 tempNew, stretchNew, defgradNew, fieldNew, C Write only - 7 stressNew, stateNew, enerInternNew, enerInelasNew) C include 'vaba_param.inc' C dimension props(nprops), density(nblock), coordMp(nblock,*), 1 charLength(nblock), strainInc(nblock,ndir+nshr), 2 relSpinInc(nblock,nshr), tempOld(nblock), 3 stretchOld(nblock,ndir+nshr), 4 defgradOld(nblock,ndir+nshr+nshr), 5 fieldOld(nblock,nfieldv), stressOld(nblock,ndir+nshr), 6 stateOld(nblock,nstatev), enerInternOld(nblock), 7 enerInelasOld(nblock), tempNew(nblock), 8 stretchNew(nblock,ndir+nshr), 9 defgradNew(nblock,ndir+nshr+nshr), 1 fieldNew(nblock,nfieldv), 2 stressNew(nblock,ndir+nshr), stateNew(nblock,nstatev), 3 enerInternNew(nblock), enerInelasNew(nblock) character*80 cmname integer k, k1, k2, iter real*8 E, nu, A, B, C, m, n, rate0, Tr, Tm, rho, TQ, Cp, WH, 1 sigeqv, f, epbar, ep, dep, eprateN, sighyd, sigyT, sigyN, dPwork, 2 trInc, fT, fs, fN, fNs, sigdotp, epbarN, tempT, tempN, dWork, 3 mu, alamda, tol, 4 cmat(6,6), sTrial(6), sNew(6), devS(6), sTem(6), rd(6), 5 L(6,6), sOld(6), sT(6), np(6) c input parameters E = props(1) ! Young's modulus nu = props(2) ! Poisson's ratio A = props(3) ! JC parameters B = props(4) C = props(5) n = props(6) m = props(7) rate0 = props(8) Tr = props(9) ! reference temperature Tm = props(10) ! melting temperature rho = props(11) ! density TQ = props(12) ! Taylor-Q heat ener. from plastic deform. Cp = props(13) ! specific heat WH = props(14) ! work - heat conversion factor c tolerance of the effe. stress, strain accuracy: ep ~ 1e-9 tol = E*1e-9 ! strain accuracy or 1e-9 Niter = 50 ! max number of N-R iterations c lame's parameters mu = E/(2.d0*(1.d0+nu)) alamda = E*nu/((1.d0 + nu) * (1.d0 - 2.d0*nu)) c stiffness matrix cmat = 0.d0 do k1 = 1, ndir do k2 = 1, ndir cmat(k1, k2) = alamda end do cmat(k1, k1) = alamda + 2.d0*mu end do do k1 = ndir+1, ndir+nshr cmat(k1, k1) = 2.d0*mu end do C -------------------- simulation first step & later ------------------- do 30 k = 1, nblock if (stateOld(k, 1) .eq. 0.d0) then go to 10 else go to 20 end if C----------------------------- initial state --------------------------- 10 trInc = sum(strainInc(k, 1:3)) do k1 = 1, ndir stressNew(k, k1) = stressOld(k, k1) + alamda*trInc + 1 2.d0*mu*strainInc(k, k1) end do do k1 = ndir+1, ndir+nshr stressNew(k, k1) = stressOld(k, k1) + 1 2.d0*mu*strainInc(k, k1) end do stateNew(k, 1) = 1.d0 ! initiation check stateNew(k, 2) = 0.d0 ! plastic strain stateNew(k, 3) = Tr ! initial temperature stateNew(k, 4) = 0.d0 ! yield stress stateNew(k, 5) = 0.d0 ! plastic strain incre. last step stateNew(k, 6) = 1 ! number of iterations tempNew(k) = Tr go to 30 C-------------------------- 2nd step and later ------------------------- 20 epbar = stateOld(k, 2) tempT = stateOld(k, 3) sigyT = stateOld(k, 4) sOld(1:6) = stressOld(k, 1:6) trInc = sum(strainInc(k, 1:3)) do k1 = 1, ndir sT(k1) = stressOld(k,k1) +alamda*trInc +2.d0*mu*strainInc(k, k1) end do do k1 = ndir+1, ndir+nshr sT(k1) = stressOld(k, k1) + 2.d0*mu*strainInc(k, k1) end do c to get the vector for radial reduction sighyd = sum(sT(1:ndir))/3.d0 devS(1:ndir) = sT(1:ndir) - sighyd devS(ndir+1:ndir+nshr) = sT(ndir+1:ndir+nshr) c equivalent stress sigeqv = sqrt(3.d0/2.d0 *(devS(1)**2.d0 + devS(2)**2.d0 + 1 devS(3)**2.d0 + 2.d0*devS(4)**2.d0 + 2.d0*devS(5)**2.d0 + 2 2.d0*devS(6)**2.d0 )) c rd is constant over the iterations if (sigeqv .gt. 0.d0) then rd = (3.d0*devS)/(2.d0*sigeqv) else rd = 0.d0 end if sTem = matmul(cmat, rd) c initial value of the plastic strain increment and the bounds ep = 0.d0 ! initial plast. strain incre. epmin = 0.d0 epmax = sigeqv/(2.d0*mu) !max(1.d-5, 3.d0*1.d-5) c NR - iteration starts iter = 0 ! number of iterations do while (iter .lt. Niter) iter = iter + 1 if (iter .gt. Niter-1.) then print*, 'too many iterations, iter = ', iter call XPLB_EXIT end if epbarN = epbar + ep eprateN = ep/dt tempN = tempT ! temperature is updated at the end c updating stress sNew = sT - ep*sTem sighyd = sum(sNew(1:ndir))/3.d0 c deviatoric stress devS(1:ndir) = sNew(1:ndir) - sighyd devS(ndir+1:ndir+nshr) = sNew(ndir+1:ndir+nshr) c equivalent stress sigeqv = sqrt(3.d0/2.d0 *(devS(1)**2.d0 + devS(2)**2.d0 + 1 devS(3)**2.d0 + 2.d0*devS(4)**2.d0 + 2.d0*devS(5)**2.d0 + 2 2.d0*devS(6)**2.d0 )) c evaluating new yield stress for the increment 'ep' call func_syield(A, B, epbarN, n, Tr, Tm, tempN, m, C, eprateN, 1 rate0, sigyN) if (sigyN .lt. sigyT) sigyN = sigyT f = sigeqv - sigyN if (abs(f) .lt. tol) exit ! out of the iteration c elastic criteria, ep = 0 & f < 0 if ((ep .eq. 0.d0) .and. (f .lt. 0.d0)) go to 12 c rearranging the margins and new plastic strain increm. if ((f .ge. 0.d0) .and. (ep .ge. epmin)) epmin = ep if ((f .lt. 0.d0) .and. (ep .lt. epmax)) epmax = ep ep = 0.5d0 * (epmax + epmin) c restoring the plastic strain increment from the last step if (iter .eq. 1) ep = stateOld(k, 5) end do 12 stressNew(k, 1:6) = sNew(1:6) c work, plastic work and temp dWork = dot_product( 0.5d0*(sOld(1:6) + sNew(1:6)), 1 strainInc(k, 1:6)) dPwork = 0.5d0 * ep * sigeqv enerInternNew(k) = enerInternOld(k) + dWork/rho enerInelasNew(k) = enerInelasOld(k) + dPwork/rho c updating state variables stateNew(k, 1) = 1.d0 ! to flag the initial step stateNew(k, 2) = epbarN ! plastic strain stateNew(k, 3) = tempT + WH*TQ*dPwork/rho/Cp ! temperature stateNew(k, 4) = sigyN ! yield stress stateNew(k, 5) = ep ! plastic strain incre. stateNew(k, 6) = stateOld(k, 6) + iter ! number of iterations 30 continue return end c ---------------------------------------------------------------------- subroutine func_syield(A, B, epbar, n, Tr, Tm, T, m, C, rate, 1 rate0, sigbar) include 'vaba_param.inc' real*8 A, B, epbar, n, Tr, Tm, T, theta, m, C, rate, rate0, sigbar if (T < Tr) then theta = 0.d0 else if (T > Tm) then theta = 1.d0 else theta = (T - Tr)/(Tm - Tr) end if if (rate == 0.d0) then rate = rate0 end if sigbar = (A + B*epbar**n)*(1.d0 - theta**m)* 1 (1.d0 + C*log(rate/rate0)) end subroutine c ----------------------------------------------------------------------

vumat_JC.for

C C C Copyright (C) 2000, 2001 Silicon Graphics, Inc. All Rights Reserved. C C This program is free software; you can redistribute it and/or modify it C under the terms of version 2.1 of the GNU Lesser General Public License C as published by the Free Software Foundation. C C This program is distributed in the hope that it would be useful, but C WITHOUT ANY WARRANTY; without even the implied warranty of C MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. C C Further, this software is distributed without any warranty that it is C free of the rightful claim of any third person regarding infringement C or the like. Any license provided herein, whether implied or C otherwise, applies only to this software file. Patent licenses, if C any, provided herein do not apply to combinations of this program with C other software, or any other product whatsoever. C C You should have received a copy of the GNU Lesser General Public C License along with this program; if not, write the Free Software C Foundation, Inc., 59 Temple Place - Suite 330, Boston MA 02111-1307, C USA. C C Contact information: Silicon Graphics, Inc., 1600 Amphitheatre Pky, C Mountain View, CA 94043, or: C C http://www.sgi.com C C For further information regarding this notice, see: C C http://oss.sgi.com/projects/GenInfo/NoticeExplan C C SUBROUTINE VXGCTI(FPN,DEST,ISB,NUM,IER,INC) C C The VXDCTI subroutine converts Cray 64-bit single-precision C floating-point numbers to VAX G_format single-precision C floating-point numbers. Numbers that produce an underflow when C converted to VAX format are converted to 32 binary zeros. Numbers C that are in overflow on the CRAY are converted to a "reserved" C floating-point representation with the sign bit set if negative. C Numbers that are valid on the CRAY but overflow on the VAX are C converted to the most positive possible number or most negative C possible number, depending on the sign. C C Presently, you must supply a parameter which, in the future, C will contain a nonzero value if any numbers converted produced C an overflow. No such indication will be given for underflow. C REAL FPN(1) ! Variable or array of any length and C ! type real, containing Cray 64-bit, C ! single-precision, floating-point C ! numbers to convert. C INTEGER DEST(1) ! Variable or array of type real to C ! contain the converted values. C INTEGER ISB ! Byte number at which to begin C ! storing the converted results. Type C ! integer variable, expression, or C ! constant. Bytes are numbered from C ! 1, beginning at the leftmost byte C ! position of DEST. C INTEGER NUM ! Number of Cray floating-point C ! numbers to convert. Type integer C ! variable, expression, or constant. C INTEGER IER ! Overflow indicator of type C ! integer. Value is 0 if all Cray C ! values convert to VAX values without C ! overflow. Value is nonzero if one C ! or more Cray values overflowed in C ! the conversion. C INTEGER INC ! Memory increment for fetching the C ! number to be converted. Optional C ! parameter of type integer variable, C ! expression, or constant. Default C ! value is 1. INTEGER ITEMP(64), JTEMP(32) CDIR$ VFUNCTION VG64O INTEGER VG64O IF (NUMARG() .EQ. 5) THEN JNC = 1 ELSE IF (NUMARG() .EQ. 6) THEN JNC = INC ELSE CALL ABORT('VAX conversion routine called with incorrect number +of arguments') ENDIF IF (NUM .LT. 0) THEN CALL ABORT('Invalid input to VAX conversion routine') ENDIF NUMC = NUM JSB = ISB J = 1 IER = 0 IF (NUM .EQ. 0) RETURN 40 CONTINUE NUMP = MIN0(NUMC,64) CDIR$ SHORTLOOP DO 80 I = 1, NUMP ITEMP(I) = VG64O(DBLE(FPN(J))) J = J + JNC 80 CONTINUE CALL VXMOVE00(ITEMP,1,NUMP*8,DEST,JSB) JSB = JSB + 8*NUMP NUMC = NUMC - NUMP IF (NUMC .GT. 0) GO TO 40 RETURN CDIR$ ID "@(#) libu/vms/vxgcti.f 92.0 10/08/98 14:57:41" END

osprey/libu/vms/vxgcti.f

C-------------------------------------------------------------- C All the routines in this file were updated on 9 Feb 2015 to C reverse the dimensions of "clcntr"/"c" (from "k x n" to C "n x k") so that the calling C routine could have the C dimensions be K x N. C-------------------------------------------------------------- C NCLFORTSTART subroutine kmns136 (dat, m, n, clcntr, k, ic1, nc + ,iter, iseed, wss, ier) implicit none c ! INPUT integer m, n, k, iter, iseed double precision dat(m,n) c ! INPUT/OUTPUT integer ic1(m), nc(k), ier double precision clcntr(n,k), wss(k) C NCLEND c ! LOCAL WORK ARRAYS integer ic2(m), ncp(k), itran(k), live(k) double precision an1(k), an2(k), d(m) integer nv, kk, mm c Currently: two methods to set the seed c . iseed=1 pick 1st k elements of the dat array c . iseed=2 'randomly' sample the dat array do kk=1,k if (iseed.eq.1) then mm = kk else mm = m/kk end if do nv=1,n clcntr(nv,kk) = dat(mm,nv) c c c print *,"mm=", mm," kk=",kk," nv=",nv," clc=",clcntr(kk,nv) end do end do call kmns (dat,m,n,clcntr,k,ic1,ic2,nc,an1,an2,ncp,d & ,itran,live,iter,wss,ier ) return end c*********************************************************************72 subroutine kmns ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, d & ,itran, live, iter, wss, ifault ) c cc KMNS carries out the K-means algorithm. c c Discussion: c c This routine attempts to divide M points in N-dimensional space into c K clusters so that the within cluster sum of squares is minimized. c c Modified: c c 13 February 2008 c c Author: c c Original FORTRAN77 version by John Hartigan, Manchek Wong. c Modifications by John Burkardt. c c Reference: c c John Hartigan, Manchek Wong, c Algorithm AS 136: c A K-Means Clustering Algorithm, c Applied Statistics, c Volume 28, Number 1, 1979, pages 100-108. c c Parameters: c c Input, double precision A(M,N), the points. c c Input, integer M, the number of points. c c Input, integer N, the number of spatial dimensions (aka, variables). c c Input/output, double precision C(N,K), the cluster centers. c c Input, integer K, the number of clusters. c c Output, integer IC1(M), the cluster to which each point is assigned. c c Workspace, integer IC2(M), used to store the cluster which each point c is most likely to be transferred to at each step. c c Output, integer NC(K), the number of points in each cluster. c c Workspace, double precision AN1(K). c c Workspace, double precision AN2(K). c c Workspace, integer NCP(K). c c Workspace, double precision D(M). c c Workspace, integer ITRAN(K). c c Workspace, integer LIVE(K). c c Input, integer ITER, the maximum number of iterations allowed. c c Output, double precision WSS(K), the within-cluster sum of squares c of each cluster. c c Output, integer IFAULT, error indicator. c 0, no error was detected. c 1, at least one cluster is empty after the initial assignment. c A better set of initial cluster centers is needed. c 2, the allowed maximum number off iterations was exceeded. c 3, K is less than or equal to 1, or greater than or equal to M. c implicit none integer k integer m integer n double precision a(m,n) double precision aa double precision an1(k) double precision an2(k) double precision c(n,k) double precision d(m) double precision da double precision db double precision dc double precision dt(2) integer i integer ic1(m) integer ic2(m) integer ifault integer ii integer ij integer il integer indx integer iter integer itran(k) integer j integer l integer live(k) integer nc(k) integer ncp(k) double precision r8_huge double precision temp double precision wss(k) ifault = 0 if ( k .le. 1 .or. m .le. k ) then ifault = 3 return end if c c For each point I, find its two closest centers, IC1(I) and c IC2(I). Assign the point to IC1(I). c do i = 1, m ic1(i) = 1 ic2(i) = 2 do il = 1, 2 dt(il) = 0.0D+00 do j = 1, n da = a(i,j) - c(j,il) dt(il) = dt(il) + da * da end do end do if ( dt(2) .lt. dt(1) ) then ic1(i) = 2 ic2(i) = 1 temp = dt(1) dt(1) = dt(2) dt(2) = temp end if do l = 3, k db = 0.0D+00 do j = 1, n dc = a(i,j) - c(j,l) db = db + dc * dc end do if ( db .lt. dt(2) ) then if ( dt(1) .le. db ) then dt(2) = db ic2(i) = l else dt(2) = dt(1) ic2(i) = ic1(i) dt(1) = db ic1(i) = l end if end if end do end do c c Update cluster centers to be the average of points contained within them. c do l = 1, k nc(l) = 0 do j = 1, n c(j,l) = 0.0D+00 end do end do do i = 1, m l = ic1(i) nc(l) = nc(l) + 1 do j = 1, n c(j,l) = c(j,l) + a(i,j) end do end do c c Check to see if there is any empty cluster at this stage. c ifault = 1 do l = 1, k if ( nc(l) .eq. 0 ) then ifault = 1 return end if end do ifault = 0 do l = 1, k aa = dble ( nc(l) ) do j = 1, n c(j,l) = c(j,l) / aa end do c c Initialize AN1, AN2, ITRAN and NCP. c c AN1(L) = NC(L) / (NC(L) - 1) c AN2(L) = NC(L) / (NC(L) + 1) c ITRAN(L) = 1 if cluster L is updated in the quick-transfer stage, c = 0 otherwise c c In the optimal-transfer stage, NCP(L) stores the step at which c cluster L is last updated. c c In the quick-transfer stage, NCP(L) stores the step at which c cluster L is last updated plus M. c an2(l) = aa / ( aa + 1.0D+00 ) if ( 1.0D+00 .lt. aa ) then an1(l) = aa / ( aa - 1.0D+00 ) else an1(l) = r8_huge ( ) end if itran(l) = 1 ncp(l) = -1 end do indx = 0 ifault = 2 do ij = 1, iter c c In this stage, there is only one pass through the data. Each c point is re-allocated, if necessary, to the cluster that will c induce the maximum reduction in within-cluster sum of squares. c call optra ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, d, & itran, live, indx ) c c Stop if no transfer took place in the last M optimal transfer steps. c if ( indx .eq. m ) then ifault = 0 go to 150 end if c c Each point is tested in turn to see if it should be re-allocated c to the cluster to which it is most likely to be transferred, c IC2(I), from its present cluster, IC1(I). Loop through the c data until no further change is to take place. c call qtran ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, d, & itran, indx ) c c If there are only two clusters, there is no need to re-enter the c optimal transfer stage. c if ( k .eq. 2 ) then ifault = 0 go to 150 end if c c NCP has to be set to 0 before entering OPTRA. c do l = 1, k ncp(l) = 0 end do end do 150 continue c c If the maximum number of iterations was taken without convergence, c IFAULT is 2 now. This may indicate unforeseen looping. c if ( ifault == 2 ) then write ( *, '(a)' ) ' ' write ( *, '(a)' ) 'KMNS - Warning!' write ( *, '(a)' ) ' Maximum number of iterations reached' write ( *, '(a)' ) ' without convergence.' end if c c Compute the within-cluster sum of squares for each cluster. c do l = 1, k wss(l) = 0.0D+00 do j = 1, n c(j,l) = 0.0D+00 end do end do do i = 1, m ii = ic1(i) do j = 1, n c(j,ii) = c(j,ii) + a(i,j) end do end do do j = 1, n do l = 1, k c(j,l) = c(j,l) / dble ( nc(l) ) end do do i = 1, m ii = ic1(i) da = a(i,j) - c(j,ii) wss(ii) = wss(ii) + da * da end do end do return end subroutine optra ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, & d, itran, live, indx ) c*********************************************************************72 c cc OPTRA carries out the optimal transfer stage. c c Discussion: c c This is the optimal transfer stage. c c Each point is re-allocated, if necessary, to the cluster that c will induce a maximum reduction in the within-cluster sum of c squares. c c Modified: c c 15 February 2008 c c Author: c c Original FORTRAN77 version by John Hartigan, Manchek Wong. c Modifications by John Burkardt. c c Reference: c c John Hartigan, Manchek Wong, c Algorithm AS 136: c A K-Means Clustering Algorithm, c Applied Statistics, c Volume 28, Number 1, 1979, pages 100-108. c c Parameters: c c Input, double precision A(M,N), the points. c c Input, integer M, the number of points. c c Input, integer N, the number of spatial dimensions. c c Input/output, double precision C(N,K), the cluster centers. c c Input, integer K, the number of clusters. c c Input/output, integer IC1(M), the cluster to which each point is assigned. c c Input/output, integer IC2(M), used to store the cluster which each point c is most likely to be transferred to at each step. c c Input/output, integer NC(K), the number of points in each cluster. c c Input/output, double precision AN1(K). c c Input/output, double precision AN2(K). c c Input/output, integer NCP(K). c c Input/output, double precision D(M). c c Input/output, integer ITRAN(K). c c Input/output, integer LIVE(K). c c Input/output, integer INDX, the number of steps since a transfer took place. c implicit none integer k integer m integer n double precision a(m,n) double precision al1 double precision al2 double precision alt double precision alw double precision an1(k) double precision an2(k) double precision c(n,k) double precision d(m) double precision da double precision db double precision dc double precision dd double precision de double precision df integer i integer ic1(m) integer ic2(m) integer indx integer itran(k) integer j integer l integer l1 integer l2 integer live(k) integer ll integer nc(k) integer ncp(k) double precision r2 double precision r8_huge double precision rr c c If cluster L is updated in the last quick-transfer stage, it c belongs to the live set throughout this stage. Otherwise, at c each step, it is not in the live set if it has not been updated c in the last M optimal transfer steps. c do l = 1, k if ( itran(l) .eq. 1) then live(l) = m + 1 end if end do do i = 1, m indx = indx + 1 l1 = ic1(i) l2 = ic2(i) ll = l2 c c If point I is the only member of cluster L1, no transfer. c if ( 1 .lt. nc(l1) ) then c c If L1 has not yet been updated in this stage, no need to c re-compute D(I). c if ( ncp(l1) .ne. 0 ) then de = 0.0D+00 do j = 1, n df = a(i,j) - c(j,l1) de = de + df * df end do d(i) = de * an1(l1) end if c c Find the cluster with minimum R2. c da = 0.0D+00 do j = 1, n db = a(i,j) - c(j,l2) da = da + db * db end do r2 = da * an2(l2) do l = 1, k c c If LIVE(L1) <= I, then L1 is not in the live set. If this is c true, we only need to consider clusters that are in the live set c for possible transfer of point I. Otherwise, we need to consider c all possible clusters. c if ( ( i .lt. live(l1) .or. i .lt. live(l2) ) .and. & l .ne. l1 .and. l .ne. ll ) then rr = r2 / an2(l) dc = 0.0D+00 do j = 1, n dd = a(i,j) - c(j,l) dc = dc + dd * dd end do if ( dc .lt. rr ) then r2 = dc * an2(l) l2 = l end if end if end do c c If no transfer is necessary, L2 is the new IC2(I). c if ( d(i) .le. r2 ) then ic2(i) = l2 c c Update cluster centers, LIVE, NCP, AN1 and AN2 for clusters L1 and c L2, and update IC1(I) and IC2(I). c else indx = 0 live(l1) = m + i live(l2) = m + i ncp(l1) = i ncp(l2) = i al1 = nc(l1) alw = al1 - 1.0D+00 al2 = nc(l2) alt = al2 + 1.0D+00 do j = 1, n c(j,l1) = ( c(j,l1) * al1 - a(i,j) ) / alw c(j,l2) = ( c(j,l2) * al2 + a(i,j) ) / alt end do nc(l1) = nc(l1) - 1 nc(l2) = nc(l2) + 1 an2(l1) = alw / al1 if ( 1.0D+00 .lt. alw ) then an1(l1) = alw / ( alw - 1.0D+00 ) else an1(l1) = r8_huge ( ) end if an1(l2) = alt / al2 an2(l2) = alt / ( alt + 1.0D+00 ) ic1(i) = l2 ic2(i) = l1 end if end if if ( indx .eq. m ) then return end if end do c c ITRAN(L) = 0 before entering QTRAN. Also, LIVE(L) has to be c decreased by M before re-entering OPTRA. c do l = 1, k itran(l) = 0 live(l) = live(l) - m end do return end subroutine qtran ( a, m, n, c, k, ic1, ic2, nc, an1, an2, ncp, & d, itran, indx ) c*********************************************************************72 c cc QTRAN carries out the quick transfer stage. c c Discussion: c c This is the quick transfer stage. c c IC1(I) is the cluster which point I belongs to. c IC2(I) is the cluster which point I is most likely to be c transferred to. c c For each point I, IC1(I) and IC2(I) are switched, if necessary, to c reduce within-cluster sum of squares. The cluster centers are c updated after each step. c c Modified: c c 15 February 2008 c c Author: c c Original FORTRAN77 version by John Hartigan, Manchek Wong. c Modifications by John Burkardt. c c Reference: c c John Hartigan, Manchek Wong, c Algorithm AS 136: c A K-Means Clustering Algorithm, c Applied Statistics, c Volume 28, Number 1, 1979, pages 100-108. c c Parameters: c c Input, double precision A(M,N), the points. c c Input, integer M, the number of points. c c Input, integer N, the number of spatial dimensions. c c Input/output, double precision C(N,K), the cluster centers. c c Input, integer K, the number of clusters. c c Input/output, integer IC1(M), the cluster to which each point is assigned. c c Input/output, integer IC2(M), used to store the cluster which each point c is most likely to be transferred to at each step. c c Input/output, integer NC(K), the number of points in each cluster. c c Input/output, double precision AN1(K). c c Input/output, double precision AN2(K). c c Input/output, integer NCP(K). c c Input/output, double precision D(M). c c Input/output, integer ITRAN(K). c c Input/output, integer INDX, counts the number of steps since the c last transfer. c implicit none integer k integer m integer n double precision a(m,n) double precision al1 double precision al2 double precision alt double precision alw double precision an1(k) double precision an2(k) double precision c(n,k) double precision d(m) double precision da double precision db double precision dd double precision de integer i integer ic1(m) integer ic2(m) integer icoun integer indx integer istep integer itran(k) integer j integer l1 integer l2 integer nc(k) integer ncp(k) double precision r2 double precision r8_huge c c In the optimal transfer stage, NCP(L) indicates the step at which c cluster L is last updated. In the quick transfer stage, NCP(L) c is equal to the step at which cluster L is last updated plus M. c icoun = 0 istep = 0 10 continue do i = 1, m icoun = icoun + 1 istep = istep + 1 l1 = ic1(i) l2 = ic2(i) c c If point I is the only member of cluster L1, no transfer. c if ( 1 .lt. nc(l1) ) then c c If NCP(L1) < ISTEP, no need to re-compute distance from point I to c cluster L1. Note that if cluster L1 is last updated exactly M c steps ago, we still need to compute the distance from point I to c cluster L1. c if ( istep .le. ncp(l1) ) then da = 0.0D+00 do j = 1, n db = a(i,j) - c(j,l1) da = da + db * db end do d(i) = da * an1(l1) end if c c If NCP(L1) <= ISTEP and NCP(L2) <= ISTEP, there will be no transfer of c point I at this step. c if ( istep .lt. ncp(l1) .or. istep .lt. ncp(l2) ) then r2 = d(i) / an2(l2) dd = 0.0D+00 do j = 1, n de = a(i,j) - c(j,l2) dd = dd + de * de end do c c Update cluster centers, NCP, NC, ITRAN, AN1 and AN2 for clusters c L1 and L2. Also update IC1(I) and IC2(I). Note that if any c updating occurs in this stage, INDX is set back to 0. c if ( dd .lt. r2 ) then icoun = 0 indx = 0 itran(l1) = 1 itran(l2) = 1 ncp(l1) = istep + m ncp(l2) = istep + m al1 = nc(l1) alw = al1 - 1.0D+00 al2 = nc(l2) alt = al2 + 1.0D+00 do j = 1, n c(j,l1) = ( c(j,l1) * al1 - a(i,j) ) / alw c(j,l2) = ( c(j,l2) * al2 + a(i,j) ) / alt end do nc(l1) = nc(l1) - 1 nc(l2) = nc(l2) + 1 an2(l1) = alw / al1 if ( 1.0D+00 .lt. alw ) then an1(l1) = alw / ( alw - 1.0D+00 ) else an1(l1) = r8_huge ( ) end if an1(l2) = alt / al2 an2(l2) = alt / ( alt + 1.0D+00 ) ic1(i) = l2 ic2(i) = l1 end if end if end if c c If no re-allocation took place in the last M steps, return. c if ( icoun .eq. m ) then return end if end do go to 10 end function r8_huge ( ) c*********************************************************************72 c cc R8_HUGE returns a "huge" R8. c c Modified: c c 13 April 2004 c c Author: c c John Burkardt c c Parameters: c c Output, double precision R8_HUGE, a huge number. c implicit none double precision r8_huge r8_huge = 1.0D+30 return end

ni/src/lib/nfpfort/kmeans_kmns_as136.f

!-------------------------------------------------------------------------------- ! Copyright (c) 2016 Peter Grünberg Institut, Forschungszentrum Jülich, Germany ! This file is part of FLEUR and available as free software under the conditions ! of the MIT license as expressed in the LICENSE file in more detail. !-------------------------------------------------------------------------------- MODULE m_types_hub1inp USE m_juDFT USE m_constants USE m_types_fleurinput_base IMPLICIT NONE PRIVATE TYPE, EXTENDS(t_fleurinput_base):: t_hub1inp !Convergence criteria for the density matrix INTEGER :: itmax = 5 REAL :: minoccDistance=1.0e-2 REAL :: minmatDistance=1.0e-3 LOGICAL :: l_dftspinpol=.FALSE. !Determines whether the DFT part is spin-polarized in a magnetic DFT+Hubbard 1 calculation LOGICAL :: l_fullMatch=.TRUE. !Determines whether two chemical potentials are used to match (if possible) LOGICAL :: l_nonsphDC=.TRUE. !Determines whether to remove the nonspherical contributions to the Hamiltonian (in the HIA orbital) !Parameters for the solver REAL :: beta = 100.0 !inverse temperature INTEGER :: n_occpm = 2 !number of particle excitations considered in the solver REAL, ALLOCATABLE :: init_occ(:) !initial occupation REAL, ALLOCATABLE :: ccf(:) !crystal field factor REAL, ALLOCATABLE :: xi_par(:) !Fixed SOC parameters INTEGER, ALLOCATABLE :: n_exc(:) INTEGER, ALLOCATABLE :: exc_l(:,:) !l quantum number from which the intraorbital exchange REAL, ALLOCATABLE :: exc(:,:) !exchange splitting parameter REAL, ALLOCATABLE :: init_mom(:,:) !initial magnetic moment !Additional arguments to be passed on to hloc.cfg (at the moment only real) INTEGER, ALLOCATABLE :: n_addArgs(:) CHARACTER(len=100), ALLOCATABLE :: arg_keys(:,:) REAL, ALLOCATABLE :: arg_vals(:,:) !Switches for arguments that were explicitly given and should not be calculated from DFT LOGICAL,ALLOCATABLE :: l_soc_given(:) LOGICAL,ALLOCATABLE :: l_ccf_given(:) CONTAINS PROCEDURE :: read_xml => read_xml_hub1inp PROCEDURE :: mpi_bc => mpi_bc_hub1inp END TYPE t_hub1inp PUBLIC t_hub1inp CONTAINS SUBROUTINE mpi_bc_hub1inp(this, mpi_comm, irank) USE m_mpi_bc_tool CLASS(t_hub1inp), INTENT(INOUT)::this INTEGER, INTENT(IN):: mpi_comm INTEGER, INTENT(IN), OPTIONAL::irank INTEGER ::rank IF (PRESENT(irank)) THEN rank = irank ELSE rank = 0 END IF CALL mpi_bc(this%itmax,rank,mpi_comm) CALL mpi_bc(this%minoccDistance,rank,mpi_comm) CALL mpi_bc(this%minmatDistance,rank,mpi_comm) CALL mpi_bc(this%l_dftspinpol,rank,mpi_comm) CALL mpi_bc(this%l_fullMatch,rank,mpi_comm) CALL mpi_bc(this%l_nonsphDC,rank,mpi_comm) CALL mpi_bc(this%beta,rank,mpi_comm) CALL mpi_bc(this%n_occpm,rank,mpi_comm) CALL mpi_bc(this%init_occ,rank,mpi_comm) CALL mpi_bc(this%ccf,rank,mpi_comm) CALL mpi_bc(this%xi_par,rank,mpi_comm) CALL mpi_bc(this%n_exc,rank,mpi_comm) CALL mpi_bc(this%exc_l,rank,mpi_comm) CALL mpi_bc(this%exc,rank,mpi_comm) CALL mpi_bc(this%init_mom,rank,mpi_comm) CALL mpi_bc(this%n_addArgs,rank,mpi_comm) CALL mpi_bc(this%arg_keys,rank,mpi_comm) CALL mpi_bc(this%arg_vals,rank,mpi_comm) CALL mpi_bc(this%l_soc_given,rank,mpi_comm) CALL mpi_bc(this%l_ccf_given,rank,mpi_comm) END SUBROUTINE mpi_bc_hub1inp SUBROUTINE read_xml_hub1inp(this, xml) USE m_types_xml CLASS(t_hub1inp), INTENT(INOUT):: this TYPE(t_xml),INTENT(INOUT) ::xml INTEGER::numberNodes,ntype,n_maxaddArgs INTEGER::i_hia,itype,i_exc,i_addArg,i,j,hub1_l CHARACTER(len=100) :: xPathA,xPathB,xPathS,key,tmp_str REAL::val ntype = xml%GetNumberOfNodes('/fleurInput/atomGroups/atomGroup') n_maxaddArgs = 5 !Maximum allowed number of additional arguments (excluding xiSOC and ccf) ALLOCATE(this%init_occ(4*ntype),source=0.0) ALLOCATE(this%ccf(4*ntype),source=-1.0) ALLOCATE(this%xi_par(4*ntype),source=0.0) ALLOCATE(this%n_exc(4*ntype),source=0) ALLOCATE(this%exc_l(4*ntype,lmaxU_const),source=-1) ALLOCATE(this%exc(4*ntype,lmaxU_const),source=0.0) ALLOCATE(this%init_mom(4*ntype,lmaxU_const),source=0.0) ALLOCATE(this%n_addArgs(4*ntype),source=0) ALLOCATE(this%arg_keys(4*ntype,n_maxaddArgs)) this%arg_keys='' !For some reason source doesn't work here ALLOCATE(this%arg_vals(4*ntype,n_maxaddArgs),source=0.0) ALLOCATE(this%l_soc_given(4*ntype),source=.FALSE.) ALLOCATE(this%l_ccf_given(4*ntype),source=.FALSE.) !General parameters: xPathA = '/fleurInput/calculationSetup/ldaHIA' numberNodes = xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathA))) IF(numberNodes==1) THEN this%itmax = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@itmax')) this%minoccDistance = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@minoccDistance')) this%minmatDistance = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@minmatDistance')) this%beta = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@beta')) this%n_occpm = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@n_occpm')) this%l_dftspinpol = evaluateFirstBoolOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@dftspinpol')) this%l_fullMatch = evaluateFirstBoolOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@fullMatch')) this%l_nonsphDC = evaluateFirstBoolOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@l_nonsphDC')) ENDIF !Read in the additional information given in the ldaHIA tags (exchange splitting and additional keywords) i_hia=0 DO itype = 1, ntype xPathS = xml%speciesPath(itype) DO j = 1, xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathS))//'/ldaHIA') i_hia = i_hia + 1 WRITE(xPathA,*) TRIM(ADJUSTL(xPathS))//'/ldaHIA[',j,']' !Read in the hubbard 1 orbital for a later check hub1_l = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@l')) !Initial occupation tmp_str = TRIM(ADJUSTL(xml%GetAttributeValue(TRIM(ADJUSTL(xPathA))//'/@init_occ'))) IF(TRIM(ADJUSTL(tmp_str))=="calc") THEN this%init_occ(i_hia) = -9e99 ELSE this%init_occ(i_hia) = evaluateFirstOnly(TRIM(ADJUSTL(tmp_str))) ENDIF !Additional exchange splitting DO i_exc = 1, xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathA))//'/exc') WRITE(xPathB,*) TRIM(ADJUSTL(xPathA))//'/exc[',i_exc,']' IF(i_exc>lmaxU_const) CALL juDFT_error("Too many additional exchange splittings provided. Maximum is 3.",& calledby="read_xml_hub1inp") this%n_exc(i_hia) = this%n_exc(i_hia) + 1 this%exc_l(i_hia,i_exc) = evaluateFirstIntOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@l')) this%exc(i_hia,i_exc) = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@J')) tmp_str = TRIM(ADJUSTL(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@init_mom'))) IF(TRIM(ADJUSTL(tmp_str))=="calc") THEN this%init_mom(i_hia,i_exc) = -9e99 ELSE this%init_mom(i_hia,i_exc) = evaluateFirstOnly(TRIM(ADJUSTL(tmp_str))) ENDIF !Check if the given l is valid (l<3 and not the same as the hubbard orbital) IF(this%exc_l(i_hia,i_exc).EQ.hub1_l.OR.this%exc_l(i_hia,i_exc).GT.3) & CALL juDFT_error("Additional exchange splitting: Not a valid l"& ,calledby="read_xml_hub1inp") !Check if there already is a defined exchange splitting on this orbital DO i = 1, this%n_exc(i_hia)-1 IF(this%exc_l(i_hia,i_exc)==this%exc_l(i_hia,i)) & CALL juDFT_error("Two exchange splittings defined for equal l"& ,calledby="read_xml_hub1inp") ENDDO ENDDO DO i_addArg = 1, xml%GetNumberOfNodes(TRIM(ADJUSTL(xPathA))//'/addArg') WRITE(xPathB,*) TRIM(ADJUSTL(xPathA))//'/addArg[',i_addArg,']' IF(i_addArg>n_maxaddArgs) CALL juDFT_error("Too many additional arguments provided. Maximum is 5.",& calledby="read_xml_hub1inp") key = xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@key') val = evaluateFirstOnly(xml%GetAttributeValue(TRIM(ADJUSTL(xPathB))//'/@value')) DO i = 1, this%n_addArgs(i_hia) IF(TRIM(ADJUSTL(key)).EQ.TRIM(ADJUSTL(this%arg_keys(i_hia,i)))) THEN CALL juDFT_error("Ambigous additional arguments: You specified two arguments with the same keyword"& ,calledby="read_xml_hub1inp") ENDIF ENDDO SELECT CASE(TRIM(ADJUSTL(key))) CASE('xiSOC') !Do not get soc from DFT and use provided value IF(this%l_soc_given(i_hia)) CALL juDFT_error("Two SOC parameters provided",calledby="read_xml_hub1inp") this%l_soc_given(i_hia) = .TRUE. this%xi_par(i_hia) = val IF(ABS(this%xi_par(i_hia))< 0.001) this%xi_par(i_hia) = 0.001 CASE('ccf') IF(this%l_ccf_given(i_hia)) CALL juDFT_error("Two crystal field factors provided",calledby="read_xml_hub1inp") this%l_ccf_given(i_hia) = .TRUE. this%ccf(i_hia) = val CASE DEFAULT !Additional argument -> simply pass on to solver this%n_addArgs(i_hia) = this%n_addArgs(i_hia) + 1 this%arg_keys(i_hia,this%n_addArgs(i_hia)) = TRIM(ADJUSTL(key)) this%arg_vals(i_hia,this%n_addArgs(i_hia)) = val END SELECT ENDDO ENDDO ENDDO END SUBROUTINE read_xml_hub1inp END MODULE m_types_hub1inp

fleurinput/types_hub1inp.f90

module qlibc_util_m use iso_c_binding implicit none interface ! void qtreetbl_copy_data_c(void *val_data_from, void *val_data_to, size_t size_data, bool freemem) subroutine qlibc_copy_data_c(val_data_from, val_data_to, size_data, freemem) bind(c) import :: c_ptr, c_size_t, c_bool type(c_ptr), value :: val_data_from type(c_ptr), value :: val_data_to integer(c_size_t), value :: size_data logical(c_bool), value :: freemem end subroutine ! void qlibc_free_c(void *obj) subroutine qlibc_free_c(obj) bind(c) import :: c_ptr type(c_ptr), value :: obj end subroutine end interface contains pure function f_c_string(f_string) result (c_string) use, intrinsic :: iso_c_binding, only: c_char, c_null_char implicit none character(len=*), intent(in) :: f_string character(len=1,kind=c_char) :: c_string(len_trim(f_string)+1) integer :: n, i n = len_trim(f_string) do i = 1, n c_string(i) = f_string(i:i) end do c_string(n + 1) = c_null_char end function end module qlibc_util_m

qcontainers_f/qlibc_util.f90

program collect_events implicit none character*512 string512,eventfile character*19 basicfile,nextbasicfile character*15 outputfile integer istep,i,numoffiles,nbunches,nevents,ievents,junit(80) double precision xtotal,absxsec,evwgt,xsecfrac integer i_orig common /c_i_orig/i_orig integer ioutput parameter(ioutput=99) integer nevents_file(80),proc_id(80) double precision xsecfrac_all(80) common /to_xsecfrac/xsecfrac_all common /to_nevents_file/nevents_file,proc_id integer proc_id_tot(0:100) double precision xsec(100),xsecABS,xerr(100) logical get_xsec_from_res1 common/total_xsec/xsec,xerr,xsecABS,proc_id_tot,get_xsec_from_res1 write (*,*) "Overwrite the event weights?" write (*,*) "give '0' to keep original weights;" write (*,*) "give '1' to overwrite the weights"/ $ /" to sum to the Xsec;" write (*,*) "give '2' to overwrite the weights"/ $ /" to average to the Xsec (=default)" write (*,*) "give '3' to overwrite the weights"/ $ /" to either +/- 1." read (*,*) i_orig if (i_orig.ne.0 .and. i_orig.ne.1 .and. i_orig.ne.2 .and. $ i_orig.ne.3) stop write(*,*) i_orig istep=0 1 continue write (*,*) 'step #',istep outputfile='allevents_X_000' if(istep.eq.0) then basicfile='nevents_unweighted' outputfile='allevents_0_000' else basicfile='nevents_unweighted0' if(istep.gt.8) then write (*,*) 'Error, istep too large',istep stop endif write(basicfile(19:19),'(i1)')istep write(outputfile(11:11),'(i1)')istep endif nextbasicfile='nevents_unweighted0' write(nextbasicfile(19:19),'(i1)')istep+1 open(unit=10,file=basicfile,status='old') open(unit=98,file=nextbasicfile,status='unknown') call get_orderstags_glob_infos() c c First get the cross section from the res_1 files c if (istep.eq.0) then call get_xsec(10) endif numoffiles=0 nbunches=0 nevents=0 xtotal=0.d0 do while (.true.) read(10,'(512a)',err=2,end=2) string512 eventfile=string512(2:index(string512,' ')) read(string512(index(string512,' '):512),*) $ ievents,absxsec,xsecfrac if (ievents.eq.0) cycle nevents=nevents+ievents numoffiles=numoffiles+1 xsecfrac_all(numoffiles) = xsecfrac c store here the proc_id as computed from directory name ("@XX" in c process generation) if (eventfile(1:1).eq.'P') then if (eventfile(3:3).eq.'_') then read(eventfile(2:2),'(i1)') proc_id(numoffiles) elseif(eventfile(4:4).eq.'_') then read(eventfile(2:3),'(i2)') proc_id(numoffiles) elseif(eventfile(5:5).eq.'_') then read(eventfile(2:4),'(i3)') proc_id(numoffiles) else write (*,*) 'ERROR in collect_events: '/ $ /'cannot find process ID' stop endif else proc_id(numoffiles)=-1 endif c store here the number of events per file nevents_file(numoffiles) = ievents xtotal=xtotal+absxsec junit(numoffiles)=numoffiles+10 open(unit=junit(numoffiles),file=eventfile,status='old', & err=999) c Every time we find 80 files, collect the events if (numoffiles.eq.80) then nbunches=nbunches+1 if (i_orig.eq.1) then if (.not.get_xsec_from_res1) then evwgt=xtotal/dfloat(nevents) else evwgt=xsecABS/dfloat(nevents) endif elseif(i_orig.eq.2) then if (.not.get_xsec_from_res1) then evwgt=xtotal else evwgt=xsecABS endif elseif(i_orig.eq.3) then evwgt=1d0 endif write (*,*) 'found ',numoffiles, & ' files, bunch number is',nbunches if(nbunches.le.9) then write(outputfile(15:15),'(i1)')nbunches elseif(nbunches.le.99) then write(outputfile(14:15),'(i2)')nbunches elseif(nbunches.le.999) then write(outputfile(13:15),'(i3)')nbunches else write (*,*) 'Error, too many bunches' stop endif open (unit=ioutput,file=outputfile,status='unknown') call collect_all_evfiles(ioutput,numoffiles,junit, # nevents,evwgt) do i=1,numoffiles if (istep.eq.0) then close (junit(i)) else close (junit(i),status='delete') endif enddo close (ioutput) write(98,*) outputfile(1:15),' ',nevents,' ',xtotal, # ' ', 1e0 numoffiles=0 nevents=0 xtotal=0.d0 endif enddo 2 continue close(10) c Also collect events from the rest files if(numoffiles.ne.0) then nbunches=nbunches+1 if (i_orig.eq.1) then if (.not.get_xsec_from_res1) then evwgt=xtotal/dfloat(nevents) else evwgt=xsecABS/dfloat(nevents) endif elseif(i_orig.eq.2) then if (.not.get_xsec_from_res1) then evwgt=xtotal else evwgt=xsecABS endif elseif(i_orig.eq.3) then evwgt=1d0 endif write (*,*) 'found ',numoffiles, & ' files, bunch number is',nbunches if(nbunches.le.9) then write(outputfile(15:15),'(i1)')nbunches elseif(nbunches.le.99) then write(outputfile(14:15),'(i2)')nbunches elseif(nbunches.le.999) then write(outputfile(13:15),'(i3)')nbunches else write (*,*) 'Error, too many bunches' stop endif open (unit=ioutput,file=outputfile,status='unknown') call collect_all_evfiles(ioutput,numoffiles,junit, # nevents,evwgt) do i=1,numoffiles if (istep.eq.0) then close (junit(i)) else close (junit(i),status='delete') endif enddo close(ioutput) write(98,*) outputfile(1:15),' ',nevents,' ',xtotal, # ' ', 1e0 endif close(98) c if(nbunches.gt.1) then istep=istep+1 write (*,*) 'More than 1 bunch, doing next step',istep goto 1 else write (*,*) 'Done. Final event file (with',nevents, & ' events) is:' write (*,*) outputfile(1:15) endif return c 999 continue write (*,*) 'Error, event file',eventfile,' not found' stop end subroutine collect_all_evfiles(ioutput,numoffiles,junit,imaxevt $ ,evwgt) use extra_weights implicit none integer i_orig common /c_i_orig/i_orig integer ioutput,junit(80) integer imaxevt,maxevt,ii,numoffiles,nevents,itot,iunit, # mx_of_evt(80),i0,i,j,jj,kk,n,nn double precision evwgt,evwgt_sign integer ione parameter (ione=1) integer IDBMUP(2),PDFGUP(2),PDFSUP(2),IDWTUP,NPRUP,LPRUP double precision EBMUP(2),XSECUP,XERRUP,XMAXUP integer IDBMUP1(2),PDFGUP1(2),PDFSUP1(2),IDWTUP1,NPRUP1,LPRUP1 double precision EBMUP1(2),XSECUP1,XERRUP1,XMAXUP1 INTEGER MAXNUP PARAMETER (MAXNUP=500) INTEGER NUP,IDPRUP,IDUP(MAXNUP),ISTUP(MAXNUP), # MOTHUP(2,MAXNUP),ICOLUP(2,MAXNUP) DOUBLE PRECISION XWGTUP,SCALUP,AQEDUP,AQCDUP, # PUP(5,MAXNUP),VTIMUP(MAXNUP),SPINUP(MAXNUP) character*140 buff character*10 MonteCarlo,MonteCarlo1, MonteCarlo0 character*100 path integer iseed data iseed/1/ double precision rnd,fk88random external fk88random integer nevents_file(80),proc_id(80) common /to_nevents_file/nevents_file,proc_id double precision xsecfrac_all(80) common /to_xsecfrac/xsecfrac_all double precision XSECUP2(100),XERRUP2(100),XMAXUP2(100) integer LPRUP2(100) common /lhef_init/XSECUP2,XERRUP2,XMAXUP2,LPRUP2 double precision xsecup_l(100),xerrup_l(100) integer lprup_l(100),nproc_l logical found_proc include 'run.inc' integer proc_id_tot(0:100) double precision xsec(100),xsecABS,xerr(100) logical get_xsec_from_res1 common/total_xsec/xsec,xerr,xsecABS,proc_id_tot,get_xsec_from_res1 c Common blocks for the orders tags integer n_orderstags,oo integer orderstags_glob(maxorders) common /c_orderstags_glob/n_orderstags, orderstags_glob c maxevt=0 if (.not. get_xsec_from_res1) then do i=1,100 xsecup_l(i)=0.d0 xerrup_l(i)=0.d0 enddo else do i=1,100 if (i.le.proc_id_tot(0)) then xsecup_l(i)=xsec(i) xerrup_l(i)=xerr(i) lprup_l(i) =proc_id_tot(i) else xsecup_l(i)=0.d0 xerrup_l(i)=0.d0 endif enddo endif call read_lhef_header(junit(ione),maxevt,MonteCarlo) if (MonteCarlo .ne. '') MonteCarlo0 = MonteCarlo call read_lhef_init(junit(ione), # IDBMUP,EBMUP,PDFGUP,PDFSUP,IDWTUP,NPRUP, # XSECUP,XERRUP,XMAXUP,LPRUP) c if the number of the events is in the header (as for evt files in the c subchannel folders (P*/G*/), the number of events should be in the c header. Check consistency in this case if (maxevt .gt. 0) then mx_of_evt(1)=maxevt if (mx_of_evt(1) .ne. nevents_file(1)) then write(*,*) 'Inconsistent event file 1, unit=', junit(1) write(*,*) 'Expected # of events:', nevents_file(1) write(*,*) 'Found # of events:', mx_of_evt(1) stop endif else mx_of_evt(1)=nevents_file(1) endif maxevt=mx_of_evt(1) nproc_l=NPRUP if (.not. get_xsec_from_res1) then do i=1,nproc_l xerrup_l(i)=xerrup2(i)**2 * xsecfrac_all(ione) xsecup_l(i)=xsecup2(i) * xsecfrac_all(ione) if (proc_id(ione).ne.-1) then lprup_l(i)=proc_id(ione) if (nproc_l.gt.1) then write (*,*) $ 'ERROR: inconsistent nproc in collect_event' write (*,*) nproc_l,NPRUP write (*,*) proc_id stop endif else lprup_l(i)=lprup2(i) endif enddo endif do ii=2,numoffiles call read_lhef_header(junit(ii),nevents,MonteCarlo1) if (nevents .gt. 0) then mx_of_evt(ii)=nevents if (mx_of_evt(ii) .ne. nevents_file(ii)) then write(*,*) 'Inconsistent event file, unit=',junit(ii) write(*,*) 'Expected # of events:', nevents_file(ii) write(*,*) 'Found # of events:', mx_of_evt(ii) stop endif else mx_of_evt(ii)=nevents_file(ii) endif if(MonteCarlo.ne.MonteCarlo1)then write(*,*)'Error in collect_all_evfiles' write(*,*)'Files ',ione,' and ',ii,' are inconsistent' write(*,*)'Monte Carlo types are not the same' write(*,*)'1', MonteCarlo, '2', MonteCarlo1 stop endif maxevt=maxevt+mx_of_evt(ii) call read_lhef_init(junit(ii), # IDBMUP1,EBMUP1,PDFGUP1,PDFSUP1,IDWTUP1,NPRUP1, # XSECUP1,XERRUP1,XMAXUP1,LPRUP1) if (.not.get_xsec_from_res1) then if(proc_id(ii).ne.-1) then lprup2(1)=proc_id(ii) endif do i=1,NPRUP1 found_proc=.false. do j=1,nproc_l if (lprup_l(j).eq.lprup2(i)) then xerrup_l(j)=xerrup_l(j)+xerrup2(i)**2 *xsecfrac_all(ii) xsecup_l(j)=xsecup_l(j)+xsecup2(i) *xsecfrac_all(ii) found_proc=.true. exit endif enddo if (.not.found_proc) then nproc_l=nproc_l+1 xerrup_l(nproc_l)=xerrup2(i)**2 *xsecfrac_all(ii) xsecup_l(nproc_l)=xsecup2(i) *xsecfrac_all(ii) lprup_l(nproc_l)=lprup2(i) endif enddo endif if( # IDBMUP(1).ne.IDBMUP1(1) .or. # IDBMUP(2).ne.IDBMUP1(2) .or. # EBMUP(1) .ne.EBMUP1(1) .or. # EBMUP(2) .ne.EBMUP1(2) .or. # PDFGUP(1).ne.PDFGUP1(1) .or. # PDFGUP(2).ne.PDFGUP1(2) .or. # PDFSUP(1).ne.PDFSUP1(1) .or. # PDFSUP(2).ne.PDFSUP1(2))then write(*,*)'Error in collect_all_evfiles' write(*,*)'Files ',ione,' and ',ii,' are inconsistent' write(*,*)'Run parameters are not the same' stop endif enddo if(maxevt.ne.imaxevt)then write(*,*)'Error in collect_all_evfiles' write(*,*)'Total number of events inconsistent with input' write(*,*)maxevt,imaxevt stop endif if (.not.get_xsec_from_res1) then do i=1,nproc_l xerrup_l(i)=sqrt(xerrup_l(i)) enddo endif XSECUP=xsecup_l(ione) XERRUP=xerrup_l(ione) LPRUP=lprup_l(ione) if (.not.get_xsec_from_res1) then NPRUP=nproc_l else NPRUP=proc_id_tot(0) endif do i=1,NPRUP XSECUP2(i)=xsecup_l(i) xerrup2(i)=xerrup_l(i) lprup2(i)=lprup_l(i) xmaxup2(i)=abs(evwgt) enddo path="../Cards/" call write_lhef_header_banner(ioutput,maxevt,MonteCarlo0,path) call write_lhef_init(ioutput, # IDBMUP,EBMUP,PDFGUP,PDFSUP,IDWTUP,NPRUP, # XSECUP,XERRUP,abs(evwgt),LPRUP) itot=maxevt do i=1,maxevt rnd=fk88random(iseed) call whichone(rnd,numoffiles,itot,mx_of_evt,junit,iunit,i0) call read_lhef_event(iunit, # NUP,IDPRUP,XWGTUP,SCALUP,AQEDUP,AQCDUP, # IDUP,ISTUP,MOTHUP,ICOLUP,PUP,VTIMUP,SPINUP,buff) if (proc_id(i0).ne.-1) IDPRUP=proc_id(i0) if (i_orig.eq.0) then evwgt_sign=XWGTUP else c Overwrite the weights. Also overwrite the weights used for PDF & scale c reweighting evwgt_sign=dsign(evwgt,XWGTUP) if (do_rwgt_scale) then do oo=0,n_orderstags do kk=1,dyn_scale(0) if (lscalevar(kk)) then do ii=1,nint(scalevarF(0)) do jj=1,nint(scalevarR(0)) wgtxsecmu(oo,jj,ii,kk)=wgtxsecmu(oo,jj,ii,kk) $ *evwgt_sign/XWGTUP enddo enddo else wgtxsecmu(oo,1,1,kk)=wgtxsecmu(oo,1,1,kk) $ *evwgt_sign/XWGTUP endif enddo enddo endif if (do_rwgt_pdf) then do nn=1,lhaPDFid(0) if (lpdfvar(nn)) then do n=0,nmemPDF(nn) wgtxsecPDF(n,nn)=wgtxsecPDF(n,nn)*evwgt_sign/XWGTUP enddo else wgtxsecPDF(0,nn)=wgtxsecPDF(0,nn)*evwgt_sign/XWGTUP endif enddo endif endif call write_lhef_event(ioutput, # NUP,IDPRUP,evwgt_sign,SCALUP,AQEDUP,AQCDUP, # IDUP,ISTUP,MOTHUP,ICOLUP,PUP,VTIMUP,SPINUP,buff) enddo write(ioutput,'(a)')'</LesHouchesEvents>' return end subroutine whichone(rnd,numoffiles,itot,mx_of_evt,junit,iunit,i0) implicit none double precision rnd,tiny,one,xp(80),xsum,prob integer numoffiles,itot,mx_of_evt(80),junit(80),iunit,ifiles,i0 logical flag parameter (tiny=1.d-4) c if(itot.le.0)then write(6,*)'fatal error #1 in whichone' stop endif one=0.d0 do ifiles=1,numoffiles xp(ifiles)=dfloat(mx_of_evt(ifiles))/dfloat(itot) one=one+xp(ifiles) enddo if(abs(one-1.d0).gt.tiny)then write(6,*)'whichone: probability not normalized' stop endif c i0=0 flag=.true. xsum=0.d0 do while(flag) if(i0.gt.numoffiles)then write(6,*)'fatal error #2 in whichone' stop endif i0=i0+1 prob=xp(i0) xsum=xsum+prob if(rnd.lt.xsum)then flag=.false. itot=itot-1 mx_of_evt(i0)=mx_of_evt(i0)-1 iunit=junit(i0) endif enddo return end FUNCTION FK88RANDOM(SEED) * ----------------- * Ref.: K. Park and K.W. Miller, Comm. of the ACM 31 (1988) p.1192 * Use seed = 1 as first value. * IMPLICIT INTEGER(A-Z) REAL*8 MINV,FK88RANDOM SAVE PARAMETER(M=2147483647,A=16807,Q=127773,R=2836) PARAMETER(MINV=0.46566128752458d-09) HI = SEED/Q LO = MOD(SEED,Q) SEED = A*LO - R*HI IF(SEED.LE.0) SEED = SEED + M FK88RANDOM = SEED*MINV END subroutine get_xsec(unit10) implicit none integer unit10 character*120 string120,eventfile,results_file,read_line integer proc_id_l,add_xsec_to,i,ievents double precision xsec_read,xerr_read,absxsec,xsecfrac,xsecABS_read integer proc_id_tot(0:100) double precision xsec(100),xsecABS,xerr(100) logical get_xsec_from_res1 common/total_xsec/xsec,xerr,xsecABS,proc_id_tot,get_xsec_from_res1 proc_id_tot(0)=0 get_xsec_from_res1=.true. xsecABS=0d0 do read(unit10,'(120a)',end=22,err=22) string120 eventfile=string120(2:index(string120,' ')) read(string120(index(string120,' '):120),*) $ ievents,absxsec,xsecfrac if (eventfile(1:1).eq.'P') then if (eventfile(3:3).eq.'_') then read(eventfile(2:2),'(i1)') proc_id_l elseif(eventfile(4:4).eq.'_') then read(eventfile(2:3),'(i2)') proc_id_l elseif(eventfile(5:5).eq.'_') then read(eventfile(2:4),'(i3)') proc_id_l else write (*,*) 'ERROR in collect_events: '/ $ /'cannot find process ID' stop endif else proc_id_l=-1 get_xsec_from_res1=.false. exit endif if (index(eventfile,'events.lhe').eq.0) then get_xsec_from_res1=.false. exit endif results_file=eventfile(1:index(eventfile,'events.lhe')-1) $ //'res_1' open (unit=11,file=results_file,status='old',err=998) read (11,'(120a)',err=998) read_line read(read_line(index(read_line,'Final result [ABS]:')+20:),* $ ,err=998)xsecABS_read read (11,'(120a)',err=998) read_line close (11) read(read_line(index(read_line,'Final result:')+14:),*,err=998) $ xsec_read read(read_line(index(read_line,'+/-')+4:),*,err=998) xerr_read add_xsec_to=-1 if (proc_id_tot(0).ge.1) then do i=1,proc_id_tot(0) if (proc_id_l.eq.proc_id_tot(i)) then add_xsec_to=i exit endif enddo endif if (add_xsec_to.eq.-1) then proc_id_tot(0)=proc_id_tot(0)+1 if (proc_id_tot(0).gt.100) then write (*,*) 'ERROR, too many separate processes' $ ,proc_id_tot(0) stop endif proc_id_tot(proc_id_tot(0))=proc_id_l xsec(proc_id_tot(0))=xsec_read*xsecfrac xerr(proc_id_tot(0))=xerr_read**2*xsecfrac else xsec(add_xsec_to)=xsec(add_xsec_to)+xsec_read*xsecfrac xerr(add_xsec_to)=xerr(add_xsec_to)+xerr_read**2*xsecfrac endif xsecABS=xsecABS + xsecABS_read*xsecfrac enddo 22 continue do i=1,proc_id_tot(0) xerr(i)=sqrt(xerr(i)) enddo rewind(unit10) return 998 continue write (*,*) 'Error, results file',results_file $ ,' not found or not the correct format.' stop end

Template/NLO/SubProcesses/collect_events.f

subroutine corrpos(ctimestp,rc) include 'globals.h' character(len=*) :: rc integer :: i,p,k,ctimestp(*) real dt2,rcsign,acceff,dt if(rc.NE.'sync'.AND.rc.NE.'desync') & call terror('unknown sync option in corrpos') if(rc.EQ.'sync') then if(syncflag.EQ.0) return syncflag=0 rcsign=-1. if(verbosity.GT.0) print*,'<corrpos> sync' endif if(rc.EQ.'desync') then if(syncflag.EQ.1) return syncflag=1 rcsign=1. if(verbosity.GT.0) print*,'<corrpos> desync' endif ppropcount=ppropcount+1 if(.not.periodic) then do k=1,ndim do i=1,npactive p=pactive(i) dt2=(dtime/2**(ctimestp(p)-1))**2 pos(p,k)=pos(p,k)+rcsign*acc(p,k)*dt2/8. enddo enddo else do k=1,ndim do i=1,npactive p=pactive(i) dt2=(dtime/2**(ctimestp(p)-1))**2 pos(p,k)=pos(p,k)+rcsign*acc(p,k)*dt2/8. if(pos(p,k).GE.hboxsize) pos(p,k)=pos(p,k)-pboxsize if(pos(p,k).LT.-hboxsize) pos(p,k)=pos(p,k)+pboxsize enddo enddo endif end subroutine subroutine steppos include 'globals.h' integer i,ib,p,k,nkeep real acceff,distance,csdtime ppropcount=ppropcount+1 if(.not.periodic) then do k=1,ndim do p=1,nbodies pos(p,k)=pos(p,k)+vel(p,k)*tsteppos enddo enddo else do k=1,ndim do p=1,nbodies pos(p,k)=pos(p,k)+vel(p,k)*tsteppos if(pos(p,k).GE.hboxsize) pos(p,k)=pos(p,k)-pboxsize if(pos(p,k).LT.-hboxsize) pos(p,k)=pos(p,k)+pboxsize enddo enddo endif tpos=tpos+tsteppos tnow=tpos end subroutine subroutine stepvel include 'globals.h' integer p,k,i real acceff,vfac1now,vfac2now,dt,go,maxacc ! adhoc acc limiter k=0 if(usesph) then do i=1,nsphact p=pactive(i) acceff=sqrt(sum(acc(p,1:3)**2)) maxacc=tstepcrit**2*hsmooth(p)*(2**(itimestp(p)-1)/dtime)**2 if(acceff.GT.maxacc) then k=k+1 acc(p,1:3)=acc(p,1:3)/acceff*maxacc endif enddo endif if(k.GT.0.AND.(verbosity.GT.0).OR.k.GT.0.001*nsph) & print*,' > acc limiter',tnow,k ! do k=1,ndim do i=1,npactive p=pactive(i) vel(p,k)=vel(p,k)+acc(p,k)*dtime/2**(itimestp(p)-1) enddo enddo do i=1,npactive p=pactive(i) tvel(p)=tvel(p)+dtime/2**(itimestp(p)-1) if(ABS(tvel(p)-tnow).gt.dtime/2**(itimestp(p)-1)) then print*,p,tvel(p),tnow,itimestp(p),npactive call terror(' stepvel error: tvel mismatch') endif enddo end subroutine subroutine zeroacc include 'globals.h' acc(pactive(1:npactive),1:3)=0. end subroutine subroutine zeropot include 'globals.h' phi(pactive(1:npactive))=0. phiext(pactive(1:npactive))=0. if(npactive.EQ.nbodies) esofttot=0.0 end subroutine subroutine vextrap include 'globals.h' integer p,k do k=1,ndim do p=1,nsph veltpos(p,k)=vel(p,k)+acc(p,k)*(tnow-tvel(p)) enddo enddo end subroutine subroutine allethdot include 'globals.h' if(.NOT.consph) then call terror(' non conservative TBD') ! if(sph_visc.EQ.'sphv') call omp_ethdotcv(pc) ! if(sph_visc.EQ.'bulk') call omp_ethdotbv(pc) ! if(sph_visc.EQ.'sph ') call omp_ethdot(pc) else ! if(sph_visc.EQ.'sph ') call omp_ethdotco(pc) if(sph_visc.EQ.'bulk') call terror(' allethdot error') if(sph_visc.EQ.'sphv') call terror(' allethdot error') endif end subroutine subroutine allentdot include 'globals.h' if(sph_visc.EQ.'sph ') call omp_entdot if(sph_visc.EQ.'bulk') call terror(' allentdot error') if(sph_visc.EQ.'sphv') call terror(' allentdot error') end subroutine subroutine allaccsph include 'globals.h' if(.NOT.consph) then call terror(' non conservative TBD') ! if(sph_visc.EQ.'sphv') call omp_accsphcv ! if(sph_visc.EQ.'bulk') call omp_accsphbv ! if(sph_visc.EQ.'sph ') call omp_accsph else if(sph_visc.EQ.'sph ') call omp_accsphco if(sph_visc.EQ.'bulk') call terror(' allaccsph error') if(sph_visc.EQ.'sphv') call terror(' allaccsph error') endif end subroutine subroutine alldentacc include 'globals.h' if(.NOT.consph) then call terror(' non conservative TBD') ! if(sph_visc.EQ.'sphv') call omp_accsphcv ! if(sph_visc.EQ.'bulk') call omp_accsphbv ! if(sph_visc.EQ.'sph ') call omp_accsph else if(sph_visc.EQ.'sph ') call omp_entdotaccsphco if(sph_visc.EQ.'bulk') call terror(' allaccsph error') if(sph_visc.EQ.'sphv') call terror(' allaccsph error') endif end subroutine subroutine alldethacc include 'globals.h' if(.NOT.consph) then call terror(' dethacc TBD ') ! if(sph_visc.EQ.'sphv') call omp_accsphcv ! if(sph_visc.EQ.'bulk') call omp_accsphbv ! if(sph_visc.EQ.'sph ') call omp_accsph else if(sph_visc.EQ.'sph ') call omp_ethdotaccsphco if(sph_visc.EQ.'bulk') call terror(' allaccsph error') if(sph_visc.EQ.'sphv') call terror(' allaccsph error') endif end subroutine subroutine stepsph include 'globals.h' integer i,j,npnear,p call makesphtree if(hupdatemethod.NE.'mass') then call terror('TBD: hupdate=mass') ! call omp_stepnear !change to hsmcal ! call omp_density !easychange ! call veldisp ! lesseasy else call densnhsmooth endif ! call update_reduction !!!!!! not so urgent ! quick fix: (not parallelized) call tree_reduction(root,incells,'sph ') if(nbh.GT.0) call blackholes if(nstar+nbh.GT.0) call mech_feedback if(nsphact.EQ.0) return if(.NOT.isotherm) then if(.NOT.uentropy) then call allethdot call exstep2(1) call alldethacc call exstep2(2) else call allentdot ! entdot is 2x faster than accsph call exstep2(1) call alldentacc ! call allentdot call exstep2(2) endif call exstep2(3) else call alldethacc endif end subroutine subroutine step include 'globals.h' integer itime itime=0 do while(itime.LT.2*max_tbin) call setrnd() if(starform.and.nsph.gt.0) then if(verbosity.GT.0) print*,'<stepsys> starform...' call newstar endif if(nbh.gt.0) then if(verbosity.GT.0) print*,'<stepsys> bh mergers...' call bhmergers endif if(verbosity.GT.0) print*,'<stepsys> partremoval1...' call partremoval if(verbosity.GT.0) print*,'<stepsys> timestep..' call timestep(itime) if(verbosity.GT.0) print*,'<stepsys> steppos..' call steppos ! note that particles are not removed in clean, just set to zero mass ! - we have moved this from before partremoval. all routines should be ! 'zero-mass-safe' if(verbosity.GT.0) print*,'<stepsys> clean...' call clean ! if(verbosity.GT.0) print*,'<stepsys> cosmo...' !TBD if(usesph.and.radiate) call cosmicray if(usesph) then if(verbosity.GT.0) print*,'<stepsys> extrapolate..' call vextrap call extrapethrho endif if(npactive.gt.0) then if(verbosity.GT.0) print*,'<stepsys> gravity..' call zeroacc call gravity('acc ') endif if((starform.or.radiate)) then if(verbosity.GT.0) print*,'<stepsys> starevolv..' call starevolv endif if(usesph.and.nsphact.gt.0.and.radiate) then if(verbosity.GT.0) print*,'<stepsys> fuvflux..' call zerofuv call fuvflux endif if(usesph.and.radiate) then if(verbosity.GT.0) print*,'<stepsys> molecules...' call molecules endif if(usesph) then if(verbosity.GT.0) print*,'<stepsys> stepsph..' call stepsph endif if(npactive.GT.0) then if(verbosity.GT.0) print*,'<stepsys> stepvel..' ! if(sphfiltr.and.usesph.and.nsphact.gt.0) call vfilter tbd call stepvel endif enddo if(verbosity.GT.0) print*,'<stepsys> partremoval2...' call partremoval if(verbosity.GT.0) print*,'<stepsys> nbodies,nsph,nstar:',nbodies,nsph,nstar if(sortpart) then if(verbosity.GT.0) print*,'<stepsys> sorting...' if(sortpart) call mortonsort endif end subroutine subroutine stepsystem(n) include 'globals.h' integer n ! for AMUSE ! reset the record of the removed ids nremovals = 0 ! --- call step print*,'<stepsystem> step completed:',n call outstate(n) end subroutine

src/amuse/community/fi/src/stepsystem.f90

! ################################################################### ! Copyright (c) 2019-2020, Marc De Graef Research Group/Carnegie Mellon University ! All rights reserved. ! ! Redistribution and use in source and binary forms, with or without modification, are ! permitted provided that the following conditions are met: ! ! - Redistributions of source code must retain the above copyright notice, this list ! of conditions and the following disclaimer. ! - Redistributions in binary form must reproduce the above copyright notice, this ! list of conditions and the following disclaimer in the documentation and/or ! other materials provided with the distribution. ! - Neither the names of Marc De Graef, Carnegie Mellon University nor the names ! of its contributors may be used to endorse or promote products derived from ! this software without specific prior written permission. ! ! THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" ! AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE ! IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ! ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE ! LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL ! DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR ! SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER ! CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, ! OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE ! USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. ! ################################################################### !-------------------------------------------------------------------------- ! EMsoft:xrd.f90 !-------------------------------------------------------------------------- ! ! MODULE: xrd ! !> @author Marc De Graef, Carnegie Mellon University ! !> @brief Basic routines for XRD computations ! !> @date 07/30/19 MDG 1.0 original version !-------------------------------------------------------------------------- module xrdmod use local contains !-------------------------------------------------------------------------- ! ! SUBROUTINE: getXRDwavenumber ! !> @author Marc De Graef, Carnegie Mellon University ! !> @brief return the x-ray wave number for a given accelerating voltage ! !> @param kV accelerating voltage of x-ray tube (in kV, obviously) ! !> @date 07/30/19 MDG 1.0 original !-------------------------------------------------------------------------- recursive function getXRDwavenumber(kV) result(wavenumber) !DEC$ ATTRIBUTES DLLEXPORT :: getXRDwavenumber IMPLICIT NONE real(kind=sgl),INTENT(IN) :: kV real(kind=sgl) :: wavenumber wavenumber = kV / 1.23984193 ! in nm end function getXRDwavenumber end module xrdmod

Source/EMsoftLib/xrd.f90

program main use, intrinsic :: iso_fortran_env use :: json_module use :: stdlib_logger use :: ex_io implicit none type(json_file) :: config_json real(real64), allocatable :: d(:, :, :) call config_json%initialize() call load_configure_file(config_json, filename="config") call construct(d, config_json) call compute_distance_function(d, config_json) call output_distance_function(d, "distance_function") call finalize(d) call config_json%destroy() end program main

app/main.f90

program t integer :: i do i = 1, 10 if (i == 5) exit print *, i end do end program t

test/output_tests/exit_out1.f90

Debats du Senat (hansard) 1ere Session, 36 e Legislature, Volume 137, Numero 111 Le mardi 16 fevrier 1999 L'honorable Gildas L. Molgat, President La reaction aux articles de presse Le resultat des premieres elections Projet de loi modificatif-Rapport du comite Projet de loi modificatif-Motion d'adoption du message des Communes-Rapport du comite Regie interne, budgets et administration Presentation du trentieme rapport du comite Presentation du trente et unieme rapport du comite Le debat sur l'envoi de troupes a l'etranger-Avis d'interpellation La reponse du gouvernement aux demandes et aux recommandations-Avis d'interpellation Le programme d'echange de pages avec la Chambre des communes La gestion du fonds-Le debut de l'envoi des bourses-La position du gouvernement L'election du leader du gouvernement par ses pairs-La position du gouvernement La Societe de developpement du Cap-Breton Avis de motion condamnant l'article du magazine Hustler concernant la ministre du Patrimoine canadien Projet de loi sur la reconnaissance des services de guerre de la marine marchande Deuxieme lecture-Suite du debat Etude du rapport du comite special-Ajournement du debat L'etat du systeme financier Etude du rapport provisoire du comite des banques et du commerce-Ajournement du debat Examen en comite plenier-Report de l'article La situation du systeme financier Les travaux du Senat Le mardi 16 fevrier 1999 La seance est ouverte a 14 heures, le President etant au fauteuil. Son Honneur le President : Au nom de tous les senateurs, je vous souhaite la bienvenue au Senat canadien. La date du Nouvel An est fixee selon le calendrier lunaire chinois. Nous entamons aujourd'hui l'annee du lapin. Les enfants et amis celibataires recoivent des lai xi des personnes mariees. Ces petites enveloppes rouges contiennent de l'argent, en guise de bonne fortune. Les personnes qui les consomment verront leurs voeux se realiser.

data/Hansard/Training/hansard.36.1.senate.debates.1999-02-16.111.f

subroutine gg_hZZ_tb(p,msq) implicit none c--- Author: J. M. Campbell, September 2013 c--- Matrix element squared for gg -> H -> ZZ signal process c--- The exact result for massive bottom and top quark loops is included include 'constants.f' include 'ewcouple.f' include 'qcdcouple.f' include 'qlfirst.f' include 'interference.f' integer h1,h2,h34,h56 double precision p(mxpart,4),msq(fn:nf,fn:nf),msqgg,fac, & pswap(mxpart,4),oprat double complex ggH_bquark(2,2,2,2),ggH_tquark(2,2,2,2),Ahiggs, & ggH_bquark_swap(2,2,2,2),ggH_tquark_swap(2,2,2,2),Ahiggs_swap double complex ggH2_bquark(2,2,2,2),ggH2_tquark(2,2,2,2), & ggH2_bquark_swap(2,2,2,2),ggH2_tquark_swap(2,2,2,2) if (qlfirst) then qlfirst=.false. call qlinit endif msq(:,:)=0d0 call getggHZZamps(p,ggH_bquark,ggH_tquark) call getggH2ZZamps(p,ggH2_bquark,ggH2_tquark) if (interference) then c--- for interference, compute amplitudes after 4<->6 swap pswap(1,:)=p(1,:) pswap(2,:)=p(2,:) pswap(3,:)=p(3,:) pswap(4,:)=p(6,:) pswap(5,:)=p(5,:) pswap(6,:)=p(4,:) call getggHZZamps(pswap,ggH_bquark_swap,ggH_tquark_swap) call getggH2ZZamps(pswap,ggH2_bquark_swap,ggH2_tquark_swap) endif msqgg=0d0 do h1=1,2 h2=h1 do h34=1,2 do h56=1,2 c--- compute total Higgs amplitude AHiggs= & +ggH_bquark(h1,h2,h34,h56) & +ggH_tquark(h1,h2,h34,h56) & +ggH2_bquark(h1,h2,h34,h56) & +ggH2_tquark(h1,h2,h34,h56) if (interference .eqv. .false.) then c--- normal case msqgg=msqgg+cdabs(AHiggs)**2 else c--- with interference AHiggs_swap= & +ggH_bquark_swap(h1,h2,h34,h56) & +ggH_tquark_swap(h1,h2,h34,h56) & +ggH2_bquark_swap(h1,h2,h34,h56) & +ggH2_tquark_swap(h1,h2,h34,h56) if (h34 .eq. h56) then oprat=1d0-2d0*dble(dconjg(AHiggs)*AHiggs_swap) & /(cdabs(AHiggs)**2+cdabs(AHiggs_swap)**2) else oprat=1d0 endif msqgg=msqgg+cdabs(AHiggs)**2*oprat & +cdabs(AHiggs_swap)**2*oprat endif enddo enddo enddo c--- overall factor extracted (c.f. getggHZZamps.f) fac=avegg*V*(4d0*esq*gsq/(16d0*pisq)*esq)**2 msq(0,0)=msqgg*fac*vsymfact return end

MCFM-JHUGen/src/ZZ/gg_hzz_tb.f

!=============================================================================! subroutine resstat(res, dtl) ! ! This subroutine calculates the statistics of the residual. ! ! Note that the norm of the residual is divided by dtl ! !=============================================================================! use global use material implicit none real :: res(ndof,nx,ny), dtl(nx,ny) !$sgi distribute res(*,*,block), dtl(*,block) real :: resnod real :: totres = 0.0d0, resfrt = 0.0d0, resmax = 0.0d0 real :: resmx(ndof) integer :: jtotrs, jresmx, numnp integer :: i, j, ixrmax, iyrmax real :: CPUl #ifdef CRAY real, save :: CPU real, external :: second #else real*4, save :: CPU real*4, external :: second #endif !=============================================================================! ixrmax = 0 iyrmax = 0 numnp = nx * ny ! !$omp parallel do private(i,resnod,ixrmax,iyrmax) & ! !$omp& reduction(+: totres) reduction(max: resmax) do j = 1, ny do i = 1, nx resnod = ( res(1,i,j)**2 + & res(2,i,j)**2 + & res(3,i,j)**2 + & res(4,i,j)**2 + & res(5,i,j)**2 ) / dtl(i,j)**2 totres = totres + resnod ! resmax = max(resnod,resmax) if (resnod .gt. resmax) then resmax = resnod ixrmax = i iyrmax = j end if end do end do if (ixrmax.ne.0 .and. iyrmax.ne.0) then resmx(:) = res(:,ixrmax,iyrmax) / dtl(ixrmax,iyrmax) else resmx(:) = zero end if totres = sqrt(totres / real(numnp)) resmax = sqrt(resmax) if (resfrt .eq. zero) resfrt = totres if (totres .ne. zero) then jtotrs = int ( 10.0 * log10 ( totres / resfrt ) ) jresmx = int ( 10.0 * log10 ( resmax / totres ) ) else jtotrs = zero jresmx = zero end if !.... calculate the CPU-time if (istep.eq.0) then CPUl = zero else CPUl = second() - CPU end if CPU = second() !.... output the result write(*,1000) lstep, time, Delt, cfl, totres, jtotrs, & ixrmax, iyrmax, jresmx, CPU, CPUl write(ihist,1000) lstep, time, Delt, cfl, totres, jtotrs, & ixrmax, iyrmax, jresmx, CPU, CPUl call flush(ihist) !.... this outputs the value of the maximum residual ! write(60,1010) lstep, ixrmax, iyrmax, resmx(1), resmx(2), & ! resmx(3), resmx(4), resmx(5) !.... reinitialize the variables totres = zero resmax = zero return 1000 format(1p,i6,e10.3,e10.3,e10.3,e10.3,2x,'(',i4,')',& 2x,'<',' (',i3,',',i3,') ','|',i4,'>',e10.3,e10.3) 1010 format(3(i6,1x),5(1pe13.6,1x)) end !=============================================================================! subroutine vstat(vl, dtl) ! ! This subroutine calculates the statistics of the solution. ! !=============================================================================! use global use material implicit none real :: vl(ndof,nx,ny), dtl(nx,ny) !$sgi distribute vl(*,*,block), dtl(*,block) real :: resnod real :: totres = 0.0d0, resfrt = 0.0d0, resmax = 0.0d0 real :: resmx(ndof) integer :: jtotrs, jresmx, numnp integer :: i, j, ixrmax, iyrmax real :: CPUl #ifdef CRAY real, save :: CPU real, external :: second #else real*4, save :: CPU real*4, external :: second #endif !=============================================================================! ixrmax = 0 iyrmax = 0 numnp = nx * ny ! !$omp parallel do private(i,resnod,ixrmax,iyrmax) & ! !$omp& reduction(+: totres) reduction(max: resmax) do j = 1, ny do i = 1, nx resnod = vl(1,i,j)**2 + vl(2,i,j)**2 + & vl(3,i,j)**2 + vl(4,i,j)**2 + & vl(5,i,j)**2 totres = totres + resnod ! resmax = max(resnod,resmax) if (resnod .gt. resmax) then resmax = resnod ixrmax = i iyrmax = j end if end do end do if (ixrmax.ne.0 .and. iyrmax.ne.0) then resmx(:) = vl(:,ixrmax,iyrmax) / dtl(ixrmax,iyrmax) else resmx(:) = zero end if totres = sqrt(totres / real(numnp)) resmax = sqrt(resmax) if (resfrt .eq. zero) resfrt = totres if (totres .ne. zero) then jtotrs = int ( 10.0 * log10 ( totres / resfrt ) ) jresmx = int ( 10.0 * log10 ( resmax / totres ) ) else jtotrs = zero jresmx = zero end if !.... calculate the CPU-time if (istep.eq.0) then CPUl = zero else CPUl = second() - CPU end if CPU = second() !.... output the result write(*,1000) lstep, time, Delt, cfl, totres, jtotrs, & jresmx, CPU, CPUl write(ihist,1000) lstep, time, Delt, cfl, totres, jtotrs, & jresmx, CPU, CPUl !!$ write(*,1000) lstep, time, Delt, cfl, totres, jtotrs, & !!$ ixrmax, iyrmax, jresmx, CPU, CPUl !!$ !!$ write(ihist,1000) lstep, time, Delt, cfl, totres, jtotrs, & !!$ ixrmax, iyrmax, jresmx, CPU, CPUl call flush(ihist) !.... this outputs the value of the maximum residual ! write(60,1010) lstep, ixrmax, iyrmax, resmx(1), resmx(2), & ! resmx(3), resmx(4), resmx(5) !.... reinitialize the variables totres = zero resmax = zero return 1000 format(1p,i6,e10.3,e10.3,e10.3,e10.3,1x,'(',i4,') ',i4,e10.3,e10.3) !!$1000 format(1p,i6,e10.3,e10.3,e10.3,e10.3,2x,'(',i4,')',& !!$ 2x,'<',' (',i3,',',i3,') ','|',i4,'>',e10.3,e10.3) 1010 format(3(i6,1x),5(1pe13.6,1x)) end

src/resstat.f90

subroutine gg_hWWgg_v(p,msq) c--- Virtual matrix element squared averaged over initial colors and spins c c g(-p1)+g(-p2)-->H --> W^- (e^-(p5)+nubar(p6)) c + W^+ (nu(p3)+e^+(p4))+g(p_iglue1=7)+g(p_iglue2=8) c c Calculation is fully analytic implicit none include 'constants.f' include 'masses.f' include 'ewcouple.f' include 'qcdcouple.f' include 'sprods_com.f' include 'zprods_com.f' include 'scheme.f' include 'nflav.f' include 'deltar.f' integer j,k,i5,i6 double precision p(mxpart,4),msq(fn:nf,fn:nf),s3456 double precision hdecay,Asq,fac double precision qrqr,qarb,aqbr,abab,qbra,bqar double precision qaqa,aqaq,qqqq,aaaa double precision qagg,aqgg,qgqg,gqqg,agag,gaag,ggqa double precision gggg double precision Hqarbvsqanal double precision Hqaqavsqanal double precision HAQggvsqanal double precision Hggggvsqanal logical CheckEGZ common/CheckEGZ/CheckEGZ !$omp threadprivate(/CheckEGZ/) parameter(i5=7,i6=8) C*************************************************** scheme='dred' C*************************************************** if (scheme .eq. 'dred') then deltar=0d0 elseif (scheme .eq. 'tH-V') then deltar=1d0 else write(6,*) 'Invalid scheme in gg_hgg_v.f' stop endif c--- Set this to true to check squared matrix elements against c--- hep-ph/0506196 using the point specified in Eq. (51) CheckEGZ=.false. c--- Set up spinor products call spinoru(i6,p,za,zb) Asq=(as/(3d0*pi))**2/vevsq C Deal with Higgs decay to WW s3456=s(3,4)+s(3,5)+s(3,6)+s(4,5)+s(4,6)+s(5,6) hdecay=gwsq**3*wmass**2*s(3,5)*s(6,4) hdecay=hdecay/(((s3456-hmass**2)**2+(hmass*hwidth)**2) . *((s(3,4)-wmass**2)**2+(wmass*wwidth)**2) . *((s(5,6)-wmass**2)**2+(wmass*wwidth)**2)) Asq=(as/(3d0*pi))**2/vevsq fac=ason2pi*Asq*gsq**2*hdecay c--- for checking EGZ if (CheckEGZ) then call CheckEGZres endif c--- for checking scheme dependence of amplitudes c call CheckScheme(1,2,i5,i6) C--- Note that Hqarbvsqanal(1,2,i5,i6)=Hqarbvsqanal(i6,i5,2,1) C--- and the basic process is q(-ki6)+r(-k2)-->q(-k5)+r(-k1) c--- FOUR-QUARK PROCESSES WITH NON-IDENTICAL QUARKS C---quark-quark C q(1)+r(2)->q(i5)+r(i6) qrqr=Hqarbvsqanal(i6,2,i5,1) C----quark-antiquark annihilation (i6-->i5-->2-->i6) wrt q(1)+r(2)->q(i5)+r(i6) c q(1)+a(2)->r(i5)+b(i6) qarb=Hqarbvsqanal(i5,i6,2,1) C----antiquark-quark annihilation (1<-->2, i5<-->6) wrt to the above c a(1)+q(2)->b(i5)+r(i6) c aqbr=Hqarbvsqanal(i6,i5,1,2) aqbr=qarb C----quark-antiquark scattering (i6<-->2) wrt q(1)+r(2)->q(i5)+r(i6) c q(1)+b(2)->r(i5)+a(i6) qbra=Hqarbvsqanal(2,i6,i5,1) C----antiquark-quark scattering c b(1)+q(2)->a(i5)+r(i6) (1<-->2, i5<-->i6) wrt to the above c bqar=Hqarbvsqanal(1,i5,i6,2) bqar=qbra C---antiquark-antiquark scattering (1<-->i5,2<-->i6) wrt q(1)+r(2)->q(i5)+r(i6) C a(1)+b(2)->a(i5)+b(i6) abab=Hqarbvsqanal(2,i6,1,i5) C--- FOUR-QUARK PROCESSES WITH IDENTICAL QUARKS C q(1)+q(2)->q(i5)+q(i6) qqqq=qrqr+Hqarbvsqanal(i5,2,i6,1)+Hqaqavsqanal(i6,2,i5,1) C a(1)+a(2)->a(i5)+a(i6) (1<-->i5,2<-->i6) wrt q(1)+q(2)->q(i5)+q(i6) aaaa=abab+Hqarbvsqanal(2,i5,1,i6)+Hqaqavsqanal(2,i6,1,i5) C q(1)+a(2)->q(i5)+a(i6) (2<-->i6) wrt q(1)+q(2)->q(i5)+q(i6) qaqa=qbra+qarb+Hqaqavsqanal(2,i6,i5,1) C a(1)+q(2)->a(i5)+q(i6) (1<-->2, i5<-->i6) wrt the above C aqqa=qbra+qarb+Hqaqavsqanal(1,i5,i6,2) aqaq=qaqa c--- TWO-QUARK, TWO GLUON PROCESSES C a(1)+q(2)->g(3)+g(4) aqgg=+HAQggvsqanal(2,1,i5,i6) C q(1)+g(2)->q(i5)+g(i6) qgqg=+HAQggvsqanal(1,i5,2,i6) C g(1)+q(2)->q(i5)+g(i6) gqqg=+HAQggvsqanal(2,i5,1,i6) C a(1)+g(2)->a(i5)+g(i6) c agag=+HAQggvsqanal(i5,1,2,i6) agag=qgqg C g(1)+a(2)->a(i5)+g(i6) c gaag=+HAQggvsqanal(i5,2,1,i6) gaag=gqqg C g(1)+g(2)->q(i5)+a(i6) ggqa=+HAQggvsqanal(i6,i5,1,2) C q(1)+a(2)->g(i5)+g(i6) c qagg=+HAQggvsqanal(1,2,i5,i6) qagg=aqgg c--- FOUR GLUON PROCESS gggg=+Hggggvsqanal(1,2,i5,i6) C--- DEBUGGING OUTPUT C write(6,*) 'qrqr',qrqr C write(6,*) 'qarb',qarb C write(6,*) 'aqrb',aqrb C write(6,*) 'abab',abab C write(6,*) 'qbra',qbra C write(6,*) 'bqra',bqra C write(6,*) 'Identical' C write(6,*) 'qaqa',qaqa C write(6,*) 'aqqa',aqqa C write(6,*) 'qqqq',qqqq C write(6,*) 'aaaa',aaaa do j=-nf,nf do k=-nf,nf msq(j,k)=0d0 if ((j.eq.0).and.(k.eq.0)) then C---gg - all poles cancelled msq(j,k)=fac*avegg*(half*gggg+dfloat(nflav)*ggqa) elseif ((j.gt.0).and.(k.gt.0)) then C---qq - all poles cancelled if (j.eq.k) then msq(j,k)=aveqq*fac*half*qqqq else msq(j,k)=aveqq*fac*qrqr endif elseif ((j.lt.0).and.(k.lt.0)) then C---aa - all poles cancelled if (j.eq.k) then msq(j,k)=aveqq*fac*half*aaaa else msq(j,k)=aveqq*fac*abab endif elseif ((j.gt.0).and.(k.lt.0)) then C----qa scattering - all poles cancelled if (j.eq.-k) then msq(j,k)=aveqq*fac*(dfloat(nflav-1)*qarb+qaqa+half*qagg) else msq(j,k)=aveqq*fac*qbra endif elseif ((j.lt.0).and.(k.gt.0)) then C----aq scattering - all poles cancelled if (j.eq.-k) then msq(j,k)=aveqq*fac*(dfloat(nflav-1)*aqbr+aqaq+half*aqgg) else msq(j,k)=aveqq*fac*bqar endif elseif ((j.eq.0).and.(k.gt.0)) then C----gq scattering - all poles cancelled msq(j,k)=aveqg*fac*gqqg elseif ((j.eq.0).and.(k.lt.0)) then C----ga scattering - all poles cancelled msq(j,k)=aveqg*fac*gaag elseif ((j.gt.0).and.(k.eq.0)) then C----qg scattering - all poles cancelled msq(j,k)=aveqg*fac*qgqg elseif ((j.lt.0).and.(k.eq.0)) then C----ag scattering - all poles cancelled msq(j,k)=aveqg*fac*agag endif enddo enddo return end

MCFM-JHUGen/src/ggHggvirt/gg_hWWgg_v.f

Intro What is Jalapeño Water? On October 9, 2010 during lunch at the Oxford Circle Dining Commons Cuarto Dining Commons, there was a great discovery: The Jalapeño Cilantro Infused Water (Jalapeño Water for short). It was the most amazing beverage ever. When you drink it, it feels and tastes just like water. But once it is swallowed, you get the awesome jalapeño burn and the best part is the only thing to wash the burn down with is more jalapeño water, unless you get some other drink (but what’s the fun in that). Basically what happens is jalapeños are sliced and allowed to sit in water. During this time, the capsaicin (the chemical that gives the burn) dissolves off the seeds of the jalapeños and into the water ready to burn any tissue it comes in contact with. The Conspiracy Since then the Jalapeño water has yet to return to the dining commons and only lives on in the stories told by its admirers. Many comment cards have been filled out at the Oxford Circle Dining Commons Cuarto Dining Commons saying things such as Jalapeño Water! Where did it go? and What happened to the Jalapeño Water? I love that stuff,” but still no sight of any return. The comment cards mentioning the Jalapeño water also all seem to disappear and never end up on the board with responses like all the other comment cards. It was sighted on April 12, 2011 someone taking a jalapeño water comment card to the table where they respond to them, but the card was never seen again. Where do they go? The only logical explanation is that it is all part of a conspiracy to keep the students that visit the dining commons from enjoying a good beverage and keeping the food as nonspicy as possible (has anyone ever found a dish at the dining commons with the slightest bit of heat?). Current Actions At late night on April 12, 2011, students informed the dining common staff that they aware of the conspiracy through a comment card (which also disappeared with no response) and will continue to write the comment cards inquiring about the Jalapeño Water until a response is received and it becomes a regular beverage available multiple times a week at the dining commons. End of the Conspiracy On April 13, 2011 (which just happened to be the day this page was created, coincidence?) the conspiracy ended at dinner when two of the Jalapeño Water comment cards were seen with responses on the comment board, one being the one where the dining common staff was informed students knew about the conspiracy. One response explained that they rotated the flavors of infused water and that since the Jalapeño one was not very popular (why not?), it wasnt rotated in often. How about never? The second one said to prepare our palates for a new infused water with chilies and citrus. So now students wait for the new chili and citrus water and hope it is as amazing as the legendary Jalapeño Water. Update On April 17, 2011, the Cuarto Dining Commons unveiled the Jalapino Citrus infused water for us Jalapeño Water lovers. It was the biggest disappointment ever! Correct me if Im wrong, but Im pretty sure there is no such thing as a Jalapino (even Google corrects it to Jalapeño and its not recognized by spell check). Maybe it was a typo, but the peppers were red (the color of an over ripe Jalapeño). Worst of all, the peppers (whatever they were) were not even cut open, so the burn causing chemicals didnt dissolve into the water. This water gave no burn whatsoever. Lastly, the dispenser was going extremely slowly, so you couldnt even really get much. Nice try Cuarto DC, but this is not what we were promised when we were told to prepare our pallets. Come on DC, whats going on? Your community wants to know Query: was this a contamination issue? Urban legend? Salsainwater? Condiment peppers in water? Back in the day, the Tercero DC commentboard used to get requests for more hotdogs on Sundays, guaranteed canned pineapples on the salad bar, rotten produce in prepacked sandwichesa mixture of goofy and serious issues. I cant tell what this is, but it seems like management would assume its simply an inside joke. Response to the community This is not an inside joke and all the events described above are true and actually occurred. The dining commons intentionally put this out one day as one of their infused waters. I have a picture on my phone of the label/sign that I am working to put on the site (yes I was so excited that I took a picture). Response from the community Dear college students who get the pleasure of the DC, its not that hard to make infused water.. Cucumber water is delicious, so is Jalap/Hab/others fruits/veggies water. Slice, let sit, drink! Find out how long you like to let it sit, 24 hours is good, but it will have the taste by 12. 4872+ hour cucumber water gets so deliciously cucumbery. Experiment with it and have fun

lab/davisWiki/Jalape%C3%B1o_Water_Conspiracy.f