# embeddings_queue

created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee41c-a6ca-11ee-8627-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 106, "chroma:document": "G10.8 L4.\r\nExample \r\nHere is an example for changing tolerance in smoothing small line segments.\r\nO0012;\r\nG28 G91 X0 Y0;\r\nG05.1 Q3 X0 Y0 Z0; (Smooth tolerance+ control mode on)\r\nG10.8 L4 Q0.002; (Tolerance is set.)\r\nG00 G90 X100.0 Y100.0 Z100.0;\r\nG01 X100.121 Y100.321 F1000;\r\nX100.121 Y100.321;\r\nX100.321 Y100.881;\r\nX100.721 Y101.365; Smoothing (Tolerance = 2\u03bcm)\r\n\uff1a\r\n\uff1a\r\nG10.8 L4 Q0.003; (Tolerance is changed.)\r\nX110.121 Y120.321;\r\nX110.321 Y120.881;\r\nX110.721 Y121.365; Smoothing (Tolerance = 3\u03bcm)\r\n\uff1a\r\n\uff1a"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee41d-a6ca-11ee-ab22-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 106, "chroma:document": "\uff1a\r\n\uff1a\r\nG05.1 Q0; (Smooth tolerance+ control mode off)\r\nM30;\r\nNOTE\r\n- Functions Which Smooth tolerance+ control is Temporary Disabled\r\nThis function is temporary disabled when the following functions are used together.\r\nFunctions\r\nAny kind of interpolations except liner interpolation. \r\nInverse time feed\r\nConstant surface speed control cancel\r\nNormal direction control\r\nPolar coordinate command\r\nPolar coordinate interpolation\r\nPolygon turning\r\nTool length compensation command block\r\nCanned cycle\r\n2\u03bcm\r\n3\u03bcm"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee41e-a6ca-11ee-930d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 107, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 78 -\r\n- Background graphic display\r\nThe background graphic display function draws the path in Smooth tolerance+ control mode by linear\r\ninterpolation.\r\n- Functions Which Does Not Work with Smooth Tolerance+ Control\r\nThis function doesn\u2019t work with the following functions.\r\nFunctions Alarm (1)\r\nInterruption type custom macro PS2012\r\n(1) Functions which issue alarms in case using with Smooth tolerance+ control.\r\n4.9 VARIABLE LEAD THREADING (G34)\r\nT"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee41f-a6ca-11ee-8700-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 107, "chroma:document": "T\r\nSpecifying an increment or a decrement value for a lead per screw revolution enables variable lead \r\nthreading to be performed.\r\nFig. 4.9 (a) Variable lead screw\r\nFormat\r\nG34 IP_ F_ K_ Q_ ;\r\nIP_ : End point\r\nF_ : Lead in longitudinal axis direction at the start point\r\nK_ : Increment and decrement of lead per spindle revolution\r\nQ_ : Shift amount of starting angle of thread cutting\r\nExplanation\r\nAddress other than K are the same as in straight/taper thread cutting with G32."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee420-a6ca-11ee-a190-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 107, "chroma:document": "The K value depends on the increment system of the reference axis, as indicated in Table 4.9 (a).\r\nIf the specified K value exceeds the range indicated in Table 4.9 (a), if the maximum lead is exceeded \r\nafter a change due to the K value, or if the lead value is negative, an alarm PS0313, \"ILLEGAL LEAD \r\nCOMMAND\", will be issued.\r\nTable 4.9 (a) Range of valid K values\r\nIncrement system \r\nof reference axis Metric input (mm/rev) Inch input (inch/rev)\r\nIS-A \u00b10.001 to \u00b1500.000 \u00b10.00001 to \u00b150.00000"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee421-a6ca-11ee-be90-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 107, "chroma:document": "IS-B \u00b10.0001 to \u00b1500.0000 \u00b10.000001 to \u00b150.000000\r\nIS-C \u00b10.00001 to \u00b150.00000 \u00b10.0000001 to \u00b15.0000000\r\nTable4.9 (b) Range of valid lead values\r\nMetric input (mm) Inch input (inch)\r\n0.0001 to 500.0000 0.000001 to 50.000000"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee422-a6ca-11ee-8654-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 108, "chroma:document": "B-64694EN/01 PROGRAMMING 4. INTERPOLATION FUNCTIONS\r\n- 79 -\r\n- Continuous threading\r\nThe \"continuous threading\" is effective for G34.\r\nCAUTION\r\nThe \"thread cutting cycle retract\" is not effective for G34.\r\n- Multiple threading\r\nMultiple threading can be performed by specifying the Q value.\r\nAs for specifying the Q value, refer to \" MULTIPLE THREADING \".\r\nExample\r\nIf, in the increment system IS-B,\r\nG34 Z-72.0 F8.0 K0.3 ;\r\nis specified,\r\nLead at the start point: 8.0 mm\r\nLead increment: 0.3 mm/rev"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee423-a6ca-11ee-8e19-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 108, "chroma:document": "Lead increment: 0.3 mm/rev\r\nFig.4.9 (b) Example of variable lead threading\r\n4.10 CIRCULAR THREADING (G35, G36)\r\nT\r\nUsing the G35 and G36 commands, a circular thread, having the specified lead in the direction of the \r\nmajor axis, can be machined.\r\nL\r\nL: Lead\r\nFig. 4.10 (a) Circular threading\r\n8mm 8.3mm 8.6mm 8.9mm"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee424-a6ca-11ee-bf0c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 109, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 80 -\r\nFormat\r\nA sample format for the G18 plane (Z-X plane) is indicated below. In the G17 plane (X-Y plane) and the \r\nG19 plane (Y-Z plane), a sample format can be specified by following format. When using the format for \r\nthe G17 plane (X-Y plane), change the addresses Z, X, K, and I to X, Y, I, and J respectively. When using \r\nthe format for the G19 plane (Y-Z plane), change the addresses Z, X, K, and I to Y, Z, J, and K \r\nrespectively."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee425-a6ca-11ee-b2e3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 109, "chroma:document": "respectively.\r\nG35 X(U)_ Z(W)_ I_ K_ F_ Q_ ; G36 R_\r\nG35 : Clockwise circular threading command\r\nG36 : Counterclockwise circular threading command\r\nX(U), Z(W) : Specify the arc end point (in the same way as for G02, G03).\r\nI, K : Specify the arc center relative to the start point, using relative coordinates (in the \r\nsame way as for G02, G03).\r\nR : Specify the arc radius.\r\nF : Specify the lead in the direction of the major axis.\r\nQ : Specify the shift of the threading start angle"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee426-a6ca-11ee-b694-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 109, "chroma:document": "(0\u00b0 to 360\u00b0, with least input increment of 0.001)\r\n(The value cannot be programmed with a decimal point.)\r\nF X\r\nZ\r\nK\r\nI R\r\nEnd point (Z, X)\r\nArc center\r\nStart point\r\nExplanation\r\n- Specifying the arc radius\r\nIf R is specified with I and K, only R is effective.\r\n- Shift angle\r\nIf an angle greater than 360\u00b0 is programmed, it is set to 360\u00b0.\r\n- Continuous threading\r\nThe \"continuous threading\" is effective for G35, G36.\r\n- Thread cutting cycle retract"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee427-a6ca-11ee-b1a6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 109, "chroma:document": "The \"thread cutting cycle retract\" is not effective for G35, G36."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee428-a6ca-11ee-9525-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 110, "chroma:document": "B-64694EN/01 PROGRAMMING 4. INTERPOLATION FUNCTIONS\r\n- 81 -\r\n- Automatic tool compensation\r\nThe G36 command is used to specify the following two functions: Automatic tool compensation X and \r\ncounterclockwise circular threading. The function for which G36 is to be used depends on bit 3 (G36) of \r\nparameter No. 3405.\r\n\u2022 When parameter G36 is set to 0, the G36 command is used for automatic tool compensation X.\r\n\u2022 When parameter G36 is set to 1, the G36 command is used for counterclockwise circular threading."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee429-a6ca-11ee-a9c4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 110, "chroma:document": "G37.1 can be used to specify automatic tool compensation X and G37.2 can be used to specify automatic \r\ntool compensation Z.\r\n(Specification method)\r\nG37.1 X_\r\nG37.2 Z_\r\n- G code when bit 3 (G36) of parameter No. 3405 is set to 1\r\nG code G code group Function\r\nG35 01 Clockwise circular threading\r\nG36 Counterclockwise circular threading\r\nG37\r\n00\r\nAutomatic tool compensation Z\r\nG37.1 Automatic tool compensation X\r\nG37.2 Automatic tool compensation Z\r\nLimitation\r\n- Range of specifiable arc"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee42a-a6ca-11ee-b7a4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 110, "chroma:document": "- Range of specifiable arc\r\nAn arc must be specified such that it falls within a range in which the major axis of the arc is always the \r\nZ-axis or always the X-axis, as shown in Fig. 4.10 (b) and Fig. 4.10 (c). If the arc includes a point at \r\nwhich the major axis changes from the X-axis to Z-axis, or vice versa, as shown in Fig. 4.10 (d), an alarm \r\nPS5058, \"G35/G36 FORMAT ERROR\", is issued.\r\nX\r\n45\u00b0\r\nZ\r\nStart point End point\r\nFig. 4.10 (b) Range in which the Z-axis is the major axis\r\nX\r\n45\u00b0\r\nZ"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee42b-a6ca-11ee-bd83-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 110, "chroma:document": "X\r\n45\u00b0\r\nZ\r\nStart point\r\nEnd point\r\nFig. 4.10 (c) Range in which the X-axis is the major axis"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee42c-a6ca-11ee-8129-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 111, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 82 -\r\nX\r\n45\u00b0\r\nZ\r\nStart point\r\nEnd point\r\nThe major axis changes at this point.\r\nFig. 4.10 (d) Example of arc specification which causes an alarm\r\n- End point not on an arc\r\nIf the end point is not on an arc, a movement on an axis is made to a position of which coordinate matches \r\nthe corresponding coordinate of the end point. Then, a movement is made on another axis to reach the end \r\npoint.\r\nStart point\r\nCenter\r\nEnd point\r\nr\r\nCenter\r\nEnd point\r\nr"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee42d-a6ca-11ee-b061-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 111, "chroma:document": "r\r\nCenter\r\nEnd point\r\nr\r\nStart point\r\nFig. 4.10 (e) Movement when the end point is not on an arc"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee42e-a6ca-11ee-a4f9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 112, "chroma:document": "B-64694EN/01 PROGRAMMING 4. INTERPOLATION FUNCTIONS\r\n- 83 -\r\n4.11 SKIP FUNCTION (G31)\r\nLinear interpolation can be commanded by specifying axial move following the G31 command, like G01. \r\nIf an external skip signal SKIP is input during the execution of this G31 command, execution of the \r\nG31command is interrupted and the next block is executed.\r\nThe skip function is used when the end of machining is not programmed but specified with a signal from"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee42f-a6ca-11ee-bc4d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 112, "chroma:document": "the machine, for example, in grinding. It is used also for measuring the dimensions of a workpiece.\r\nFormat\r\nG31 IP ;\r\nG31 :One-shot G code (If is effective only in the block in which it is specified)\r\nExplanation\r\nThe coordinate values when the skip signal SKIP is turned on can be used in a custom macro because \r\nthey are stored in the custom macro system variable #100151 to #100182, as follows. For systems with up \r\nto 20 axes, FS16-compatible system variables (#5061 to #5080) may also be used."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee430-a6ca-11ee-bd09-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 112, "chroma:document": "#100151 (#5061) : First axis coordinate value\r\n#100152 (#5062) : Second axis coordinate value\r\n:\r\n#100170 (#5080) : 20th axis coordinate value\r\n#100171 : 21st axis coordinate value\r\n#100172 : 22nd axis coordinate value\r\n:\r\n#100182 : 32nd axis coordinate value\r\n- Feedrate\r\nTwo types of feedrate can be selected for the G31 block, using bit 1 (SFP) of parameter No. 6207.\r\n(1) Parameter SFP (No. 6207#1) = 0\r\nFeedrate specified with address F (may be specified before or in the G31 block)."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee431-a6ca-11ee-a754-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 112, "chroma:document": "(2) Parameter SFP (No. 6207#1) = 1\r\nFeedrate set for parameter No.6281.\r\nEven if bit 7 (SKF) of parameter No. 6200 is set to 1, dry run and automatic \r\nacceleration/deceleration are disabled when a feedrate with the G31 command is the feedrate which \r\nis set for parameter No. 6281.\r\nCAUTION\r\nTo increase the precision of the tool position when the skip signal SKIP is input, \r\nfeedrate override, dry run, and automatic acceleration/deceleration are disabled"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee432-a6ca-11ee-bbd9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 112, "chroma:document": "in moving by the skip function (G31) regardless of the feedrate which is specified \r\nas a feed per minute or a feed per rotation.\r\nTo enable these functions, set bit 7 (SKF) of parameter No. 6200 to 1.\r\nHowever, even if bit 7 (SKF) of parameter No. 6200 is set to 1, dry run and \r\nautomatic acceleration/deceleration are disabled when bit 1 (SFP) of parameter \r\nNo. 6207 is set to 1.\r\nNOTE\r\nIf G31 command is issued while tool radius/tool nose radius compensation is"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee433-a6ca-11ee-8db6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 112, "chroma:document": "applied, an alarm PS0035, \"CAN NOT COMMANDED G31\", is displayed. \r\nCancel the tool radius compensation with the G40 command before the G31 \r\ncommand is specified."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee434-a6ca-11ee-a9ec-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 113, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 84 -\r\nExample\r\n- The next block to G31 is an incremental programming\r\nG31 G91 X100.0 F100;\r\nY50.0;\r\n50.0\r\n100.0\r\nSkip signal is input here\r\nActual motion\r\nMotion without skip signal\r\nY\r\nX\r\nFig. 4.11 (a) The next block is an incremental programming\r\n- The next block to G31 is an absolute programming for 1 axis\r\nG31 G90 X200.0 F100;\r\nY100.0;\r\nY100.0\r\nSkip signal is input here\r\nActual motion\r\nMotion without skip signal\r\nX200.0"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee435-a6ca-11ee-a93a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 113, "chroma:document": "X200.0\r\nFig. 4.11 (b) The next block is an absolute programming for 1 axis\r\n- The next block to G31 is an absolute programming for 2 axes\r\n100 200 300\r\nActual motion\r\nMotion without skip signal\r\nSkip signal is input here\r\n(300,100)\r\nY\r\nX\r\n100\r\nG31 G90 X200.0 F100;\r\nX300.0 Y100.0;\r\nFig. 4.11 (c) The next block is an absolute programming for 2 axes"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee436-a6ca-11ee-88ec-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 114, "chroma:document": "B-64694EN/01 PROGRAMMING 4. INTERPOLATION FUNCTIONS\r\n- 85 -\r\n4.12 MULTI-STEP SKIP (G31)\r\nIn a block specifying P1 to P4 after G31, the multi-step skip function stores coordinates in a custom \r\nmacro variable when a skip signal (4-point or 8-point ; 8-point when a high-speed skip signal is used) is \r\nturned on. In the block where Q1 to Q4 are specified after G04, dwell can be skipped when skip signals \r\n(four or eight signals, or eight signals when high-speed skip signals are used) are input."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee437-a6ca-11ee-b374-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 114, "chroma:document": "A skip signal from equipment such as a fixed-dimension size measuring instrument can be used to skip \r\nprograms being executed.\r\nIn plunge grinding, for example, a series of operations from rough machining to spark-out can be \r\nperformed automatically by applying a skip signal each time rough machining, semi-fine machining, \r\nfine-machining, or spark-out operation is completed.\r\nFormat\r\nMove command\r\nG31 IP_ F_ P_ ;\r\nIP_ : End point\r\nF_ : Feedrate\r\nP_ : P1 to P4\r\nDwell\r\nG04 X(U,P)_ (Q_ );"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee438-a6ca-11ee-9a46-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 114, "chroma:document": "Dwell\r\nG04 X(U,P)_ (Q_ );\r\nX(U,P)_ : Dwell time\r\nQ_ : Q1 to Q4\r\nExplanation\r\nMulti-step skip is caused by specifying P1, P2, P3, or P4 in a G31 block. For an explanation of selecting \r\n(P1, P2, P3, or P4), refer to the manual supplied by the machine tool builder.\r\nSpecifying Q1, Q2, Q3, or Q4 in G04 (dwell command) enables dwell skip in a similar way to specifying \r\nG31. A skip may occur even if Q is not specified. For an explanation of selecting (Q1, Q2, Q3, or Q4),"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee439-a6ca-11ee-823a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 114, "chroma:document": "refer to the manual supplied by the machine tool builder.\r\n- Feedrate\r\nTwo types of feedrate can be selected for the multi-step skip block, using bit 2 (SFN) of parameter \r\nNo.6207.\r\n(1) Parameter SFN (No.6207#2) = 0\r\nFeedrate specified with address F (may be specified before or in the multi-step skip block).\r\n(2) Parameter SFN (No.6207#2) = 1\r\nFeedrate set for parameters Nos.6282 to 6285.\r\nEven if bit 7 (SKF) of parameter No.6200 is set to 1, dry run and automatic acceleration/deceleration are"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee43a-a6ca-11ee-b8d7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 114, "chroma:document": "disabled when a feedrate with the G31 command is the feedrate which is set for parameters Nos.6282 to \r\n6285.\r\nCAUTION\r\nTo increase the precision of the tool position when the skip signal is input, \r\nfeedrate override, dry run, and automatic acceleration/deceleration are disabled \r\nin moving by the skip function (G31) regardless of the feedrate which is specified \r\nas a feed per minute or a feed per rotation.\r\nTo enable these functions, set bit 7 (SKF) of parameter No.6200 to 1."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee43b-a6ca-11ee-a7e8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 114, "chroma:document": "However, even if bit 7 (SKF) of parameter No.6200 is set to 1, dry run and \r\nautomatic acceleration/deceleration are disabled when bit 2 (SFN) of parameter \r\nNo.6207 is set to 1."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee43c-a6ca-11ee-ba1b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 115, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 86 -\r\n- Correspondence to skip signals\r\nParameters Nos. 6202 to 6205 can be used to specify whether the 4-point or 8-point skip signal is used \r\n(when a high-speed skip signal is used). Specification is not limited to one-to-one correspondence. It is \r\npossible to specify that one skip signal correspond to two or more Pn's or Qn's (n=1, 2, 3, 4). Also, bits 0 \r\n(DS1) and 7 (DS8) parameter No.6206 can be used to specify dwell.\r\nCAUTION"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee43d-a6ca-11ee-b0f0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 115, "chroma:document": "CAUTION\r\nDwell is not skipped when Qn is not specified and bits 0 (DS1) and 7 (DS8) \r\nparameter No.6206 are not set.\r\n4.13 HIGH-SPEED SKIP (G31)\r\nThe skip function operates based on a high-speed skip signal (connected directly to the CNC; not via the \r\nPMC) instead of an ordinary skip signal. In this case, up to eight signals can be input.\r\nDelay and error of skip signal input is 0 - 2 msec at the CNC side (not considering those at the PMC \r\nside)."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee43e-a6ca-11ee-89b1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 115, "chroma:document": "side). \r\nThis high-speed skip signal input function keeps this value to 0.1 msec or less, thus allowing high \r\nprecision measurement.\r\nFor details, refer to the appropriate manual supplied from the machine tool builder.\r\nFormat\r\nG31 IP ;\r\nG31; One-shot G code (If is effective only in the block in which it is specified)\r\n4.14 SKIP POSITION MACRO VARIABLE IMPROVEMENT\r\nOverview\r\nIn macro variables #100151 to #100200 (#5061 to #5080) for reading the skip position when executing"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee43f-a6ca-11ee-a573-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 115, "chroma:document": "the skip command (G31), by setting bit 7 (SKM) of parameter No. 6007 to 1, it is now possible to read \r\nthe skip position in the workpiece coordinate system at the time a skip is made even if the workpiece \r\ncoordinate system setting/selection command is executed after the skip command is executed.\r\nBy setting bit 7 (SKM) of parameter No. 6007 to 0, it is possible to read the skip position that reflects the \r\nworkpiece coordinate system at the time it is read, as usual, if the workpiece coordinate system"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee440-a6ca-11ee-918e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 115, "chroma:document": "setting/selection command is executed after the skip command is executed.\r\nMacro variable\r\nThe following are the macro variables that can read the position at the time a skip is made even if the \r\nworkpiece coordinate system setting/selection command is executed after the skip command is executed, \r\nby setting bit 7 (SKM) of parameter No. 6007 to 1.\r\nSystem variable \r\nnumber\r\nSystem variable \r\nname\r\nAttribute Description\r\n#5061 to #5080 [#_ABSKP[n]] R Skip position (workpiece coordinate system)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee441-a6ca-11ee-a9d6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 115, "chroma:document": "Note) Subscript n represents an axis number (1 to 20).\r\n#100151 to #100200 The numbers to the left can also be used.\r\nNote) Subscript n represents an axis number (1 to 50).\r\n#5421 to #5440 [#_SKPDTC[n]] R Skip position (workpiece coordinate system, detection unit)\r\nNote) Subscript n represents an axis number (1 to 20).\r\n#100701 to #100750 The numbers to the left can also be used.\r\nNote) Subscript n represents an axis number (1 to 50)."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee442-a6ca-11ee-ae01-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 116, "chroma:document": "B-64694EN/01 PROGRAMMING 4. INTERPOLATION FUNCTIONS\r\n- 87 -\r\n4.15 CONTINUOUS HIGH-SPEED SKIP FUNCTION\r\nOverview\r\nThe continuous high-speed skip function is used to read absolute coordinates using high-speed skip \r\nsignals HDI0 to HDI7. Inputting a high-speed skip signal in a G31P90 block causes absolute coordinates \r\nto be stored in custom macro variables #5061 to #5080. For a system with more than 20 axes, they are"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee443-a6ca-11ee-897c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 116, "chroma:document": "stored in variables #100151 to #100182. An axis movement does not stop even if a signal is input, so that \r\nthe coordinates of multiple points can be read.\r\nUsing bit 5 (CSE) of parameter No. 6201, it is possible to enable both the rising and falling edges of a \r\nhigh-speed skip signal.\r\nFor details, refer to the manual supplied by the machine tool builder.\r\nFormat\r\nG31 P90 IP ;\r\nG31; One-shot G code (If is effective only in the block in which it is specified)\r\nExplanation\r\n- Custom macro variables"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee444-a6ca-11ee-ae40-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 116, "chroma:document": "- Custom macro variables\r\nIf a high-speed skip signal is input when G31P90 is issued, absolute coordinates are stored in custom \r\nmacro variables #5061 to #5080. For a system exceeding 20 axes, they are stored in variables #100151 to\r\n#100182.\r\nThese variables are updated as soon as the axis reaches a new skip position. It is, therefore, necessary to \r\nspecify a speed so that the axis reaches the next skip position in a period of time longer than it takes for \r\nthe application to read the variable values."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee445-a6ca-11ee-961b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 116, "chroma:document": "System with 20 or less axes System with more than 20 axes\r\n#5061 Coordinates on the first axis #100151 Coordinates on the first axis\r\n#5062 Coordinates on the second axis #100152 Coordinates on the second axis\r\n#5063 Coordinates on the third axis #100153 Coordinates on the third axis\r\n: :\r\n#5079 Coordinates on the 19th axis #100181 Coordinates on the 31st axis\r\n#5080 Coordinates on the 20th axis #100182 Coordinates on the 32nd axis\r\n- High-speed skip"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee446-a6ca-11ee-b96b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 116, "chroma:document": "- High-speed skip\r\nThis function works with a high-speed skip signal only.\r\nSelect a high-speed skip signal with bits 0 to 7 (9S1 to 9S8) of parameter No. 6208.\r\n- Ending a block\r\nA G31P90 block is ended when the axis reaches the end point.\r\nLimitation\r\nThe continuous high-speed skip function (G31P90) block must be a command for a single axis only. If an \r\nattempt is made to specify two or more axes, alarm PS5068, \u201cFORMAT ERROR IN G31 P90\u201d is issued."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee447-a6ca-11ee-9455-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 117, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 88 -\r\n4.16 TORQUE LIMIT SKIP\r\nOverview\r\nExecuting the move command following G31P99 (or G31P98) while overriding the torque limit*1 on the \r\nservo motor enables cutting feed in to be performed in the same way as in linear interpolation (G01). If, \r\nduring the movement with this command, the torque of the servo motor reaches the torque limit value \r\n(torque limit on the servo motor multiplied by the override) due to pressing or other causes or a skip"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee448-a6ca-11ee-8a5c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 117, "chroma:document": "signal (including a high-speed skip signal) is input, any remaining move commands will be canceled, and \r\nthe next block is executed. (The operation of canceling any remaining move commands and executing the \r\nnext block is called a skip operation in the remainder of this document.)\r\nIt is possible to override the torque limit on the servo motor with the following command methods:\r\n(1) Execute the torque limit override command in the PMC window."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee449-a6ca-11ee-b23c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 117, "chroma:document": "(2) Execute an address Q command in the same block as that containing a G31P99 (or G31P98) \r\ncommand.\r\n*1 : The torque limit on the servo motor is automatically set to a value conforming to the motor type \r\nsetting. The override is applied to the maximum torque of the servo motor.\r\nIn order to override the torque limit on the servo motor, set bit 0 (TQO) of parameter No. 6286 to 1.\r\nFormat\r\nG31 P98 Q_ \u03b1_ F_\r\nG31 P99 Q_ \u03b1_ F_\r\nG31 : Skip command (one-shot G code)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee44a-a6ca-11ee-a096-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 117, "chroma:document": "P98 : Performs a skip operation if the torque of the servo motor reaches the limit value.\r\nP99 : Performs a skip operation if the torque of the servo motor reaches the limit value or if \r\na skip signal is input.\r\nQ : Override value for the torque limit\r\nRange of valid settings: 1 to 254 (%)\r\n0 to 255 correspond to 0% to 100%.\r\nThe Q command is optional. If omitting it, specify the torque limit command in the \r\nPMC window beforehand. If it is omitted, and no torque limit override is set"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee44b-a6ca-11ee-a60d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 117, "chroma:document": "beforehand, alarm PS0035, \u201cCAN NOT COMMANDED G31\u201d is issued.\r\nIf an attempt is made to specify a value out of range, alarm PS0369, \u201cG31 FORMAT \r\nERROR\u201d is issued.\r\nThe specified override value is effective only to the block in which it is specified.\r\nAt the end of the skip operation, the override value returns to the one assumed\r\nimmediately before the G31 command.\r\n\u03b1 : Axis address on any one axis\r\nF : Feedrate\r\n- Conditions for performing a skip operation\r\n-\r\nTable 4.16\r\nCondition Command\r\nG31P98 G31P99"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee44c-a6ca-11ee-9257-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 117, "chroma:document": "G31P98 G31P99\r\nThe torque limit value is reached. A skip operation is performed. A skip operation is performed.\r\nA skip signal is input. No skip operation is performed. A skip operation is performed."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee44d-a6ca-11ee-9750-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 118, "chroma:document": "B-64694EN/01 PROGRAMMING 4. INTERPOLATION FUNCTIONS\r\n- 89 -\r\n- Operation during a torque limit skip\r\nFig. 4.16 (a)\r\nA torque limit skip presses a specified axis against a previously prepared part or other item while the \r\ntorque limit command is being executed on the servo motor, and then performs a skip operation when the \r\nservo motor reaches the torque limit value. A skip operation is performed with the fact that the torque"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee44e-a6ca-11ee-acf2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 118, "chroma:document": "limit value as detected in the servo motor is reached. It is, therefore, not necessary to input a skip signal \r\nusing a separate sensor or other device unlike with normal skip functions.\r\n(1) At point A, the machine comes in contact with the object under measurement and stops. At this time, \r\nbecause the torque limit value is not reached, no skip operation is performed, move commands are \r\ncontinuously output, and the current position of the CNC is updated."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee44f-a6ca-11ee-beb6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 118, "chroma:document": "(2) Because move commands are output but the machine remains stopped, there occurs a difference \r\n(error amount) between the current position of the CNC and the machine position, and torque is \r\napplied to the servo motor.\r\n(3) When the torque limit value is reached, a skip operation is performed at machine stop position, point \r\nA, and the N2 command is executed. Assuming that the current position of the CNC when the torque"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee450-a6ca-11ee-9ccc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 118, "chroma:document": "limit is reached is point B, the error amount during the torque limit skip is (A - B).\r\n- Torque limit command\r\nIf, with the torque limit skip command, no torque limit override value is specified with address Q and no \r\ntorque limit command is issued from the PMC window, etc., alarm PS0035 is issued.\r\nWhen no toque limit command is issued, the torque limit override value is either 0% or 100%.\r\nIf, in a torque limit skip command block, no torque limit override value is specified with address Q, a"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee451-a6ca-11ee-89a6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 118, "chroma:document": "torque limit is to be specified as in the program example below.\r\n(Program example)\r\nO0012\r\n:\r\nMxx (Specify a torque limit from the PMC via the window)\r\n:\r\nG31 P99 X200.0 F100.(Torque limit skip command)\r\n:\r\nG01 X100.0 F500.(Move command with the torque limit being still effective)\r\n:\r\nMyy (Cancel the torque limit from the PMC)\r\n:\r\nM30"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee452-a6ca-11ee-a41d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 119, "chroma:document": "4. INTERPOLATION FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 90 -\r\n- Positional deviation limit during the torque limit command\r\nWhile the torque limit skip command is being executed, the positional deviation limit check with the \r\nsettings of parameters Nos. 1828 and 1829 is not performed. Instead, the positional deviation limit check \r\nwith the settings of parameter No. 6287 is performed. If the positional deviation exceeds the limit, alarm"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee453-a6ca-11ee-bca6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 119, "chroma:document": "SV0004, \u201cEXCESS ERROR (G31)\u201d is issued and an instantaneous stop occurs.\r\n- Custom macro variables\r\nWhen the torque limit skip command is executed, the custom macro system variables #5061 to #5080\r\n(skip signal position; for a system with more than 20 axes, variables #100151 to #100182 are used) store \r\nthe coordinate position assumed at the end of the skip. In reality, there is a deviation due to the delay of"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee454-a6ca-11ee-b25a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 119, "chroma:document": "the servo system between the machine position and the current position of the CNC when a skip operation \r\nis executed. This deviation can be determined from the positional deviation of the servo. By setting bit 2 \r\n(TSE) of parameter No. 6201, it is possible to select whether or not the skip signal position to be stored in \r\nsystem variables should be compensated for with the error (positional deviation) of the servo system.\r\nPosition during a skip operation\r\nCurrent position of the CNC"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee455-a6ca-11ee-b491-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 119, "chroma:document": "Current position of the CNC\r\nMachine position Error\r\nPosition compensated for by \r\nreflecting the delay\r\nPosition not reflecting the delay\r\nCoordinate origin Stop point\r\nFig. 4.16 (b)\r\nNOTE\r\n1 Specify only a single axis with the torque limit skip command. If no axis is \r\nspecified or an attempt is made to specify more than one, alarm PS0369 is \r\nissued.\r\n2 Do not issue the torque limit skip command in 3-dimensional coordinate \r\nconversion mode. Otherwise, alarm PS0035 is issued."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee456-a6ca-11ee-8832-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 119, "chroma:document": "3 Do not issue the torque limit skip command in G41 or G42 mode. Otherwise, \r\nalarm PS0035 is issued.\r\n4 A torque limit arrival signal TRQL1 to TRQL8 is output regardless of the torque \r\nlimit skip command.\r\n5 Do not issue the torque limit skip command for an axis being synchronized with \r\nsynchronization control (such as synchronization control, or electronic gear box).\r\n6 Do not specify the torque limit skip command in a continuous block."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee457-a6ca-11ee-b4fd-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 119, "chroma:document": "7 The higher the movement speed, the larger the error between the position at \r\nwhich the machine stops and the position at which a skip is actually detected. \r\nAlso, the error increases as the speed is varied during movement. Do not vary \r\nthe speed with override and so on."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee458-a6ca-11ee-98e9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 120, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 91 -\r\n5 FEED FUNCTIONS\r\n5.1 OVERVIEW\r\nThe feed functions control the feedrate of the tool. The following two feed functions are available:\r\n- Feed functions\r\n1. Rapid traverse\r\nWhen the positioning command (G00) is specified, the tool moves at a rapid traverse feedrate set in \r\nthe CNC (parameter No. 1420).\r\n2. Cutting feed\r\nThe tool moves at a programmed cutting feedrate.\r\n- Override"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee459-a6ca-11ee-856c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 120, "chroma:document": "- Override\r\nOverride can be applied to a rapid traverse rate or cutting feedrate using the switch on the machine \r\noperator's panel.\r\n- Automatic acceleration/deceleration\r\nTo prevent a mechanical shock, acceleration/deceleration is automatically applied when the tool starts and \r\nends its movement (Fig. 5.1 (a)).\r\nRapid traverse rate\r\nFR : Rapid traverse \r\nrate\r\nTR : Deceleration time\r\nconstant for rapid \r\ntraverse rate\r\n0\r\nTime 0\r\nFeedrate\r\nFR\r\nTR TR\r\nFC\r\nTC TC\r\nFC : Feedrate\r\nTC : Acceleration/"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee45a-a6ca-11ee-99e1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 120, "chroma:document": "TC : Acceleration/ \r\ndeceleration time \r\nconstant for a \r\ncutting feedrate\r\nTime\r\nFig. 5.1 (a) Automatic acceleration/deceleration (example)\r\n- High-speed and high-precious machining function\r\nThe machining precision can be improved by using AI contour control function I or II. Refer to the \r\nSection of \"AI CONTOUR CONTROL FUNCTION I AND AI CONTOUR CONTROL FUNCTION II\" \r\nin \"HIGH-SPEED CUTTING FUNCTION\" for detail."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee45b-a6ca-11ee-bf7d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 121, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 92 -\r\n- Tool path in a cutting feed\r\nWhen the movement direction changes between a specified block and the next block during cutting feed, \r\nthe tool path may be rounded because of the relationship between the time constant and feedrate (Fig. 5.1\r\n(b)).\r\n0\r\nProgrammed path\r\nActual tool path\r\nY\r\nX\r\nFig. 5.1 (b) Example of tool path between two blocks \r\nIn circular interpolation, a radial error occurs (Fig. 5.1 (c)).\r\n0\r\nY\r\nX\r\nr\r\n \u2206r : Error\r\nProgrammed path"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee45c-a6ca-11ee-b6ce-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 121, "chroma:document": "\u2206r : Error\r\nProgrammed path\r\nActual tool path\r\nFig. 5.1 (c) Example of radial error in circular interpolation\r\nThe rounded-corner path shown in Fig. 5.1 (b) and the error shown in Fig. 5.1 (c) depend on the feedrate. \r\nSo, the feedrate needs to be controlled for the tool to move as programmed.\r\n5.2 RAPID TRAVERSE\r\nFormat\r\nG00 IP_ ;\r\nG00 : G code (group 01) for positioning (rapid traverse)\r\nIP_ : Dimension word for the end point\r\nExplanation"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee45d-a6ca-11ee-9c75-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 121, "chroma:document": "Explanation\r\nThe positioning command (G00) positions the tool by rapid traverse. In rapid traverse, the next block is \r\nexecuted after each axis stops at the end point and the servo motor reaches a certain range set by the \r\nmachine tool builder (in-position check).\r\nA rapid traverse rate is set for each axis by parameter No. 1420, so no rapid traverse feedrate need be \r\nprogrammed.\r\nThe following overrides can be applied to a rapid traverse rate with the switch on the machine operator's"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee45e-a6ca-11ee-a9d0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 121, "chroma:document": "panel:F0, 25%, 50%, 100%\r\nF0: Allows a fixed feedrate to be set for each axis by parameter No. 1421.\r\nFor detailed information, refer to the appropriate manual of the machine tool builder."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee45f-a6ca-11ee-9ac8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 122, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 93 -\r\n5.3 CUTTING FEED\r\nOverview\r\nFeedrate of linear interpolation (G01), circular interpolation (G02, G03), etc. are commanded with \r\nnumbers after the F code.\r\nIn cutting feed, the next block is executed so that the feedrate change from the previous block is \r\nminimized.\r\nM\r\nFour modes of specification are available:\r\n1. Feed per minute (G94)\r\nAfter F, specify the amount of feed of the tool per minute.\r\n2. Feed per revolution (G95)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee460-a6ca-11ee-af31-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 122, "chroma:document": "2. Feed per revolution (G95)\r\nAfter F, specify the amount of feed of the tool per spindle revolution.\r\n3. Inverse time feed (G93)\r\nSpecify the inverse time (FRN) after F.\r\n4. One-digit F code feed\r\nSpecify a desired one-digit number after F. Then, the feedrate set with the CNC for that number is \r\nset.\r\nAnd, the number of effective digits after the decimal point of feedrate to feedrate command F is as \r\nfollows.\r\nExample) In the case of increment system IS-B (0.001mm/ 0.0001inch)\r\nCommand\r\nDecimal"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee461-a6ca-11ee-934f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 122, "chroma:document": "Command\r\nDecimal \r\npoint of F \r\ncommand\r\nParameter\r\nThe number of effective digits after the decimal point\r\nmm inch\r\nFeed per \r\nMinute\r\n(G94)\r\nNot \r\nspecified Nothing 0 digit 2 digits\r\nF1234=1234(mm/min) F1234=12.34(inch/min)\r\nSpecified Nothing 3 digits 5 digits\r\nF1.234=1.234(mm/min) F1.23456=1.23456(inch/min)\r\nFeed per \r\nrevolution\r\n(G95)\r\nThreading\r\n(G33)\r\nNot \r\nspecified\r\nNo.1405#1\r\n=0 (NOTE)\r\n2 digits 4 digits\r\nF1234=12.34(mm/rev) F1234=0.1234(inch/rev)\r\nNo.1405#1\r\n=1 (NOTE)\r\n3 digits 5 digits"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee462-a6ca-11ee-9112-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 122, "chroma:document": "=1 (NOTE)\r\n3 digits 5 digits\r\nF1234=1.234(mm/rev) F1234=0.01234(inch/rev)\r\nSpecified Nothing 3 digits 5 digits\r\nF1.234=1.234(mm/rev) F1.23456=1.23456(inch/rev)\r\nNOTE\r\nSetting of bit 1 (FCV) of parameter No.0001 doesn\u2019t influence.\r\nT\r\nTwo modes of specification are available:\r\n1. Feed per minute (G98 or G94)\r\nAfter F, specify the amount of feed of the tool per minute.\r\n2. Feed per revolution (G99 or G95)\r\nAfter F, specify the amount of feed of the tool per spindle revolution."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee463-a6ca-11ee-a9b7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 122, "chroma:document": "And, the number of effective digits after the decimal point of feedrate to feedrate command F is as \r\nfollows.\r\nExample) In the case of increment system IS-B (0.001mm/ 0.0001inch)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee464-a6ca-11ee-b77e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 123, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 94 -\r\nCommand\r\nDecimal \r\npoint of F \r\ncommand\r\nParameter\r\nThe number of effective digits after the decimal point\r\nmm inch\r\nFeed per \r\nMinute\r\n(G98 or \r\nG94)\r\nNot \r\nspecified\r\nNo.1404#2\r\n=0\r\n0 digit 2 digits\r\nF1234=1234(mm/min) F1234=12.34(inch/min)\r\nNo.1404#2\r\n=1\r\n3 digits 5 digits\r\nF1234=1.234(mm/min) F123456=1.23456(inch/min)\r\nSpecified Nothing 3 digits 5 digits\r\nF1.234=1.234(mm/min) F1.23456=1.23456(inch/min)\r\nFeed per \r\nrevolution\r\n(G99 or \r\nG95)\r\nThreading"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee465-a6ca-11ee-9c40-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 123, "chroma:document": "(G99 or \r\nG95)\r\nThreading\r\n(G32)\r\nNot \r\nspecified\r\nNo.0001#1\r\n=0\r\n4 digits 6 digits\r\nF12345=1.2345(mm/rev) F1234567=1.234567(inch/rev)\r\nNo.0001#1\r\n=1\r\n2 digits 4 digits\r\nF1234=12.34(mm/rev) F12345=1.2345(inch/rev)\r\nSpecified Nothing 4 digits 6 digits\r\nF1.2345=1.2345(mm/rev) F1.234567=1.234567(inch/rev)\r\nFormat\r\nM\r\nFeed per minute\r\nG94 ; G code (group 05) for feed per minute\r\nF_ ; Feedrate command (mm/min or inch/min)\r\nFeed per revolution\r\nG95 ; G code (group 05) for feed per revolution"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee466-a6ca-11ee-9d02-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 123, "chroma:document": "F_ ; Feedrate command (mm/rev or inch/rev)\r\nInverse time feed (G93)\r\nG93 ; Inverse time feed command G code (05 group)\r\nF_ ; Feedrate command (1/min)\r\nOne-digit F code feed\r\nFn ;\r\nn : Number from 1 to 9\r\nT\r\nG code system A\r\nFeed per minute\r\nG98 ; G code (group 05) for feed per minute\r\nF_ ; Feedrate command (mm/min or inch/min)\r\nFeed per revolution\r\nG99 ; G code (group 05) for feed per revolution\r\nF_ ; Feedrate command (mm/rev or inch/rev)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee467-a6ca-11ee-b99f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 124, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 95 -\r\nG code system B/C\r\nFeed per minute\r\nG94 ; G code (group 05) for feed per minute\r\nF_ ; Feedrate command (mm/min or inch/min)\r\nFeed per revolution\r\nG95 ; G code (group 05) for feed per revolution\r\nF_ ; Feedrate command (mm/rev or inch/rev)\r\nExplanation\r\n- Direction of the cutting feedrate\r\nCutting feed is controlled so that the tangential feedrate is always set at a specified feedrate.\r\nX\r\nEnd point\r\nStart\r\npoint\r\nX\r\nF F\r\nCenter End\r\nStart\r\npoint"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee468-a6ca-11ee-95b3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 124, "chroma:document": "F F\r\nCenter End\r\nStart\r\npoint\r\nLinear interpolation Circular interpolation\r\nY Y\r\nFig. 5.3 (a) Tangential feedrate (F)\r\n- Feed per minute\r\nAfter specifying G code for feed per minute (in the feed per minute mode), the amount of feed of the tool \r\nper minute is to be directly specified by setting a number after F. G code for feed per minute is a modal \r\ncode. Once a G code for feed per minute is specified, it is valid until another G code belonging to the"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee469-a6ca-11ee-b644-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 124, "chroma:document": "group 05 (feed per revolution, inverse time feed) is specified.\r\nM\r\nAt power-on, the feed per minute mode is set.\r\nT\r\nBit 4 (FPM) of parameter No.3402 is set to 0:\r\nAt power-on, the feed per revolution mode is set.\r\nBit 4 (FPM) of parameter No.3402 is set to 1:\r\nAt power-on, the feed per minute mode is set.\r\nAn override from 0% to 254% (in 1% steps) can be applied to feed per minute with the switch on the \r\nmachine operator's panel. For detailed information, see the appropriate manual of the machine tool"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee46a-a6ca-11ee-9da5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 124, "chroma:document": "builder."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee46b-a6ca-11ee-9b1f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 125, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 96 -\r\n- For milling machining\r\nWorkpiece\r\nTable\r\nTool\r\nFeed amount per minute\r\n(mm/min or inch/min)\r\n- For lathe cutting\r\nFeed amount per minute\r\n(mm/min or \u00cdinch/min) F\r\nFig. 5.3 (b) Feed per minute\r\nCAUTION\r\nNo override can be used for some commands such as for threading.\r\n- Feed per revolution\r\nAfter specifying G code for feed per revolution (in the feed per revolution mode), the amount of feed of"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee46c-a6ca-11ee-9427-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 125, "chroma:document": "the tool per spindle revolution is to be directly specified by setting a number after F. G code for feed per \r\nrevolution is a modal code. Once a G code for feed per revolution is specified, it is valid until another G\r\ncode belonging to the group 05 (feed per minute, inverse time feed) is specified.\r\nAn override from 0% to 254% (in 1% steps) can be applied to feed per revolution with the switch on the \r\nmachine operator's panel. For detailed information, see the appropriate manual of the machine tool"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee46d-a6ca-11ee-b4fc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 125, "chroma:document": "builder.\r\nT\r\nIf bit 0 (NPC) of parameter No. 1402 has been set to 1, feed per revolution commands can be specified \r\neven when a position coder is not being used. (The CNC converts feed per revolution commands to feed\r\nper minute commands.)\r\n- For milling machining\r\nF\r\nFeed amount per spindle\r\nrevolution (mm/rev or inch/rev)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee46e-a6ca-11ee-a445-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 126, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 97 -\r\n- For lathe cutting\r\nFeed amount per spindle revolution\r\n(mm/rev or inch/rev)\r\nF\r\nFig. 5.3 (c) Feed per revolution\r\nCAUTION\r\nWhen the speed of the spindle is low, feedrate fluctuation may occur. \r\nThe slower the spindle rotates, the more frequently feedrate fluctuation occurs.\r\nM\r\n- Inverse time feed\r\nWhen G code for inverse time feed is specified, the inverse time specification mode (G93 mode) is set. \r\nSpecify the inverse time (FRN) with an F code."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee46f-a6ca-11ee-a006-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 126, "chroma:document": "A value from 0.001 to 9999.999 can be specified as FRN, regardless of whether the input mode is inches \r\nor metric, or the increment system is IS-B or IS-C.\r\nF code specification value FRN\r\nF1 0.001\r\nF1 (*1) 1.000\r\nF1.0 1.000\r\nF9999999 9999.999\r\nF9999 (*1) 9999.000\r\nF9999.999 9999.999\r\nNOTE\r\n*1 Value specified in fixed-point format with bit 0 (DPI) of parameter No. 3401 set to \r\n1\r\nG code for inverse time feed is a modal G code and belongs to group 05 (includes G code for feed per"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee470-a6ca-11ee-8b57-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 126, "chroma:document": "revolution and G code for feed per minute).\r\nWhen an F value is specified in inverse time specification mode and the feedrate exceeds the maximum \r\ncutting feedrate, the feedrate is clamped to the maximum cutting feedrate.\r\nIn the case of circular interpolation, the feedrate is calculated not from the actual amount of movement in \r\nthe block but from the arc radius. This means that actual machining time is longer when the arc radius is"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee471-a6ca-11ee-b460-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 126, "chroma:document": "longer than the arc distance and shorter when the arc radius is shorter than the arc distance. Inverse time \r\nfeed can also be used for cutting feed in a canned cycle.\r\nNOTE\r\n1 In the inverse time specification mode, an F code is not handled as a modal \r\ncode and therefore needs to be specified in each block. If an F code is not \r\nspecified, alarm PS1202, \u201cNO F COMMAND AT G93 \u201d is issued.\r\n2 When F0 is specified in inverse time specification mode, alarm PS0011, \u201cFEED \r\nZERO (COMMAND)\u201d is issued."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee472-a6ca-11ee-9d84-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 126, "chroma:document": "ZERO (COMMAND)\u201d is issued.\r\n3 Inverse time feed cannot be used when PMC axis control is in effect.\r\n4 If the calculated cutting feedrate is smaller than the allowable range, alarm \r\nPS0011, \u201cFEED ZERO (COMMAND)\u201d is issued."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee473-a6ca-11ee-ab81-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 127, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 98 -\r\nExample\r\n- For linear interpolation (G01)\r\ndistance\r\nfeedrate\r\ntime(min)\r\n1 FRN = =\r\nFeedrate: mm/min (for metric input)\r\ninch/min (for inch input)\r\nDistance: mm (for metric input)\r\ninch (for inch input)\r\n- To end a block in 1 (min)\r\n1\r\n1(min)\r\n1\r\n(min)\r\n1 = = = time\r\nFRN Specify F1.0.\r\n- To end a block in 10 (sec)\r\n6\r\n10 / 60(sec)\r\n1\r\n(sec)/ 60\r\n1 = = = time\r\nFRN Specify F6.0.\r\n- To find the movement time required when F0.5 is specified\r\n2\r\n0.5"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee474-a6ca-11ee-9fe3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 127, "chroma:document": "2\r\n0.5\r\n1 1 (min) = = = FRN\r\nTIME 2 (min) is required.\r\n- To find the movement time required when F10.0 is specified\r\n6\r\n10\r\n1 60 60 (min) = = \u00d7 = FRN\r\nTIME 6 (sec) is required.\r\n- For circular interpolation (G02, G03)\r\narcradius\r\nfeedrate\r\ntime\r\nFRN = = (min)\r\n1\r\nFeedrate: mm/min (for metric input)\r\ninch/min (for inch input)\r\nArc radius: mm (for metric input)\r\ninch (for inch input)\r\nNOTE\r\nIn the case of circular interpolation, the feedrate is calculated not from the actual"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee475-a6ca-11ee-9e88-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 127, "chroma:document": "amount of movement in the block but from the arcadias.\r\n- Switching of a modal code in group 05\r\nUsually, if a modal code in group 05 is switched using the feed selection command and the axis command \r\nis executed in cutting feed mode without specifying a feedrate (F), the feedrate (F) is inherited as modal \r\ndata.\r\nIf bit 4 (MFC) of parameter No. 13450 is set to 1, the feedrate (F) is cleared if a modal code in group 05"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee476-a6ca-11ee-a882-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 127, "chroma:document": "is switched. This causes alarm PS0011, \"FEED ZERO (COMMAND)\", to be issued in the cutting block. \r\nThus, it is possible to prevent cutting from being executed at an unintended feedrate (F) that is inherited \r\nas modal data."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2fee477-a6ca-11ee-a370-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 128, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 99 -\r\nExample\r\nExecute the program below by setting bit 4 (MFC) of parameter No. 13450 to 1.\r\nAt the block for switching from G94 to G95 (N06), alarm PS0011 is issued.\r\nO0001 ;\r\nN01 G90 G00 X0 Y0 ;\r\nN02 M03 S100 ;\r\nN03 G91 G01 ;\r\nN04 G94 X10.0 F100.0 ;\r\nN05 Y10.0 ;\r\nN06 G95 X10.0 ; \u21d2 Alarm PS0011 is issued.\r\nN07 Y10.0;\r\nM30;\r\nNOTE\r\n1 In G93 mode, if the axis command and the feedrate (F) command are not in the"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a65-a6ca-11ee-a14f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 128, "chroma:document": "same block, alarm PS1202, \"NO F COMMAND AT G93\" is issued regardless of \r\nthe setting of this parameter.\r\n2 If the G code of group 05 is cleared due to a reset, by setting bit 6 (CLR) of \r\nparameter No. 3402 to 1 and bit 5 (C05) of parameter No. 3406 to 0, so that the \r\nmodal G code is switched, the feedrate (F) will be cleared even if bit 7 (CFH) of \r\nparameter No. 3409 is set to 1.\r\n3 If bit 7 (FC0) of parameter No. 1404 is set to 1, alarm PS0011 is not issued and"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a66-a6ca-11ee-b2ad-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 128, "chroma:document": "the block is executed with a feedrate of 0 even if the feed selection command is \r\nused to switch the modal code of group 05 and the axis command is executed in \r\ncutting feed mode without specifying a feedrate (F). In G93 mode, alarm PS1202 \r\nis issued regardless of the setting of the parameter bit FC0.\r\n4 Alarm PS0011 or PS1202 is not used even if the feed selection command is \r\nused to switch the modal code of group 05 and the axis command is executed in"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a67-a6ca-11ee-92d2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 128, "chroma:document": "cutting feed mode without specifying a feedrate (F), provided that the travel \r\ndistance is 0.\r\n5 Alarms PS0011 and PS1202 are issued if the feed selection command is used to \r\nswitch the modal code of group 05 and the axis command is executed in cutting \r\nfeed mode without specifying a feedrate (F), even if cutting feedrate (parameter \r\nNo. 1411) during automatic operation is set. (M series.)\r\n- One-digit F code feed\r\nM"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a68-a6ca-11ee-9707-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 128, "chroma:document": "- One-digit F code feed\r\nM\r\nWhen a one-digit number from 1 to 9 is specified after F, the feedrate set for that number in a parameters\r\nNos. 1451 to 1459 is used. When F0 is specified, the rapid traverse rate is applied.\r\nThe feedrate corresponding to the number currently selected can be increased or decreased by turning on \r\nthe switch for changing one-digit F feedrate on the machine operator's panel, then by rotating the manual \r\npulse generator."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a69-a6ca-11ee-96e1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 128, "chroma:document": "pulse generator.\r\nThe increment/decrement, \u2206F, in feedrate per scale of the manual pulse generator is as follows:\r\nX\r\nF F\r\n100\r\nmax \u2206 =\r\nFmax : Feedrate upper limit for F1-F4 set by parameter No.1460, or feedrate upper limit for \r\nF5-F9 set by parameter No.1461\r\nX : Any value of 1-127 set by parameter No.1450\r\nThe feedrate set or altered is kept even while the power is off. The current feed rate is displayed on the \r\nLCD screen."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a6a-a6ca-11ee-9130-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 129, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 100 -\r\n- Cutting feedrate clamp\r\nParameter No. 1430 can be used to specify the maximum cutting feedrate for each axis. When the cutting \r\nfeedrate along an axis exceeds the maximum feedrate for the axis as a result of interpolation, the cutting \r\nfeedrate is clamped to the maximum feedrate.\r\nReference\r\nSee Appendix D for range of feedrate command value.\r\n5.4 CUTTING FEEDRATE CONTROL\r\nCutting feedrate can be controlled, as indicated in Table 5.4(a)."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a6b-a6ca-11ee-b458-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 129, "chroma:document": "Table 5.4 Cutting Feedrate Control\r\nFunction name G code Validity of G code Description\r\nExact stop G09 This function is valid for \r\nspecified blocks only.\r\nThe tool is decelerated at the end point of a \r\nblock, then an in-position check is made. \r\nThen the next block is executed.\r\nExact stop mode G61\r\nOnce specified, this \r\nfunction is valid until G62, \r\nG63, or G64 is specified.\r\nThe tool is decelerated at the end point of a \r\nblock, then an in-position check is made. \r\nThen the next block is executed."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a6c-a6ca-11ee-b725-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 129, "chroma:document": "Cutting mode G64\r\nOnce specified, this \r\nfunction is valid until G61, \r\nG62, or G63 is specified.\r\nThe tool is not decelerated at the end point \r\nof a block, but the next block is executed.\r\nTapping mode G63\r\nOnce specified, this \r\nfunction is valid until G61, \r\nG62, or G64 is specified.\r\nThe tool is not decelerated at the end point \r\nof a block, but the next block is executed.\r\nWhen G63 is specified, feedrate override \r\nand feed hold are invalid.\r\nAutomatic \r\ncorner \r\noverride\r\nAutomatic \r\noverride for"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a6d-a6ca-11ee-8584-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 129, "chroma:document": "Automatic \r\noverride for \r\ninner corners\r\nG62\r\nOnce specified, this \r\nfunction is valid until G61, \r\nG63, or G64 is specified.\r\nWhen the tool moves along an inner corner \r\nduring tool radius compensation, override is \r\napplied to the cutting feedrate to suppress \r\nthe amount of cutting per unit of time so \r\nthat a good surface finish can be produced.\r\nInternal circular \r\ncutting feedrate \r\nchange\r\n-\r\nThis function is valid in \r\nthe tool radius \r\ncompensation mode, \r\nregardless of the G code."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a6e-a6ca-11ee-a400-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 129, "chroma:document": "regardless of the G code.\r\nThe internal circular cutting feedrate is \r\nchanged.\r\nNOTE\r\n1 The purpose of in-position check is to check that the servo motor has reached \r\nwithin a specified range (specified with a parameter by the machine tool builder).\r\nIn-position check is not performed when bit 5 (NCI) of parameter No. 1601 is set \r\nto 1.\r\n2 Spindle override is enabled during tapping mode.\r\n3 Inner corner angle \u03b8: 2\u00b0 < \u03b8 \u2264 \u03b1 \u2264 178\u00b0\r\n(\u03b1 is a set value)\r\nWorkpiece\r\n\u03b8\r\nTool"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a6f-a6ca-11ee-b140-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 130, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 101 -\r\nFormat\r\nExact stop G09 IP_ ;\r\nExact stop mode G61 ;\r\nCutting mode G64 ;\r\nTapping mode G63 ;\r\nAutomatic corner override G62 ;\r\n5.4.1 Exact Stop (G09, G61), Cutting Mode (G64), Tapping Mode \r\n(G63)\r\nExplanation\r\nThe inter-block paths followed by the tool in the exact stop mode, cutting mode, and tapping mode are \r\ndifferent.\r\nAt the end point of a block specifying exact stop (G09), or each block during exact stop mode (G61),"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a70-a6ca-11ee-9ca8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 130, "chroma:document": "cutting feed is decelerated and an in-position check is performed (Fig. 5.4.1 (a)).\r\nIn-position check\r\nTool path\r\n(1)\r\n(2)\r\nY\r\n 0 X\r\nExact stop\r\nG09 G01 Y10.0 F1000.0; (1)\r\nX2.0; (2)\r\nExact stop mode\r\nG61;\r\nG01 Y10.0 F1000.0; (1)\r\nX2.0; (2)\r\nFig. 5.4.1 (a) Example of tool path when G09 or G61 is executed\r\nAt the end of each block during tapping mode (G63) or cutting mode (G64), deceleration of cutting feed \r\nis not performed and execution proceeds to the next block (Fig. 5.4.1 (b)).\r\nTool path"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a71-a6ca-11ee-8897-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 130, "chroma:document": "Tool path\r\nProgram path\r\n(1)\r\n(2)\r\nY\r\n 0 X\r\nTapping mode\r\nG63;\r\nG01 Y10.0 F1000.0; (1)\r\nX2.0; (2)\r\nCutting mode\r\nG64;\r\nG01 Y10.0 F1000.0; (1)\r\nX2.0; (2)\r\nFig. 5.4.1 (b) Example of tool path when G63 or G64 is executed\r\nCAUTION\r\nThe cutting mode (G64 mode) is set at power-on or system clear.\r\n- Restriction on tapping mode (G63)\r\nThere are restrictions when the following functions are used. Please refer to each function for detail.\r\n- Retrace\r\n- AI contour control"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a72-a6ca-11ee-86aa-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 131, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 102 - \r\n5.4.2 Automatic Corner Override \r\nM\r\nWhen tool radius compensation is performed, the movement of the tool is automatically decelerated at an \r\ninner corner and internal circular area. This reduces the load on the tool and produces a smoothly \r\nmachined surface. \r\n5.4.2.1 Automatic override for inner corners (G62) \r\nExplanation \r\n - Override condition"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a73-a6ca-11ee-aaa3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 131, "chroma:document": "- Override condition \r\nWhen G62 is specified, and the tool path with tool radius compensation applied forms an inner corner, the \r\nfeedrate is automatically overridden at both ends of the corner. \r\n There are four types of inner corners (Fig. 5.4.2.1 (a)). \r\n 2\u00b0\u2264\u03b8\u2264\u03b8p\u2264178\u00b0 in Fig. 5.4.2.1 (a). \r\n\u03b8p is a value set with parameter No. 1711. When \u03b8 is approximately equal to \u03b8p, the inner corner is \r\ndetermined with an error of 0.001\u00b0 or less. \r\n\u03b8\r\n\u03b8\r\n\u03b8\r\n\u03b8\r\n: Tool \r\n: Programmed path \r\n: Tool center path"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a74-a6ca-11ee-84c0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 131, "chroma:document": ": Tool center path \r\n1. Straight line-straight line 2. Straight line-arc \r\n3. Arc-straight line 4. Arc-arc \r\nFig. 5.4.2.1 (a) Inner corner \r\n - Override range \r\nWhen a corner is determined to be an inner corner, the feedrate is overridden before and after the inner \r\ncorner. The distances Ls and Le, where the feedrate is overridden, are distances from points on the tool \r\ncenter path to the corner (Fig. 5.4.2.1 (b), Fig. 5.4.2.1 (c), Fig. 5.4.2.1 (d)). Ls and Le are set with"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a75-a6ca-11ee-aa6e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 131, "chroma:document": "parameters Nos. 1713 and 1714. \r\nProgrammed path \r\nLe \r\na b \r\nLs \r\nTool center path \r\nThe feedrate is overridden from point a to point b. \r\nFig. 5.4.2.1 (b) Override Range (Straight Line to Straight Line)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a76-a6ca-11ee-9ddf-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 132, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 103 -\r\nWhen a programmed path consists of two arcs, the feedrate is overridden if the start and end points are in \r\nthe same quadrant or in adjacent quadrants (Fig. 5.4.2.1 (c)).\r\nFig. 5.4.2.1 (c) Override Range (Arc to Arc)\r\nRegarding program (2) of an arc, the feedrate is overridden from point a to point b and from point c to \r\npoint d (Fig. 5.4.2.1 (d)).\r\nc\r\nd a\r\nLe Ls\r\nb\r\nLs Le\r\n(2)\r\nProgrammed path\r\nTool center path\r\nTool"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a77-a6ca-11ee-b9aa-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 132, "chroma:document": "Tool center path\r\nTool\r\nFig. 5.4.2.1 (d) Override Range (Straight Line to Arc, Arc to Straight Line)\r\n- Override value\r\nAn override value is set with parameter No. 1712. An override value is valid even for dry run and \r\none-digit F code feed specification.\r\nIn the feed per minute mode, the actual feedrate is as follows:\r\n F \u00d7 (automatic override for inner corners) \u00d7 (feedrate override)\r\nLimitation\r\n- Look-ahead acceleration/deceleration before interpolation"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a78-a6ca-11ee-8c9e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 132, "chroma:document": "Override for inner corners is disabled during look-ahead acceleration/deceleration before interpolation.\r\n- Start-up/G41, G42\r\nOverride for inner corners is disabled if the corner is preceded by a start-up block or followed by a block \r\nincluding G41 or G42.\r\n- Offset \r\nOverride for inner corners is not performed if the offset is zero."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a79-a6ca-11ee-80bb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 133, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 104 -\r\n5.4.2.2 Internal circular cutting feedrate change\r\nFor internally offset circular cutting, the feedrate on a programmed path is set to a specified feedrate (F) \r\nby specifying the circular cutting feedrate with respect to F, as indicated below (Fig. 5.4.2.2 (a)). This \r\nfunction is valid in the tool radius compensation mode, regardless of the G62 code. \r\n F \u00d7 Rc / Rp\r\nRc : Tool center path radius\r\nRp : Programmed radius"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a7a-a6ca-11ee-8c83-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 133, "chroma:document": "Rp : Programmed radius\r\nIt is also valid for the dry run and the one-digit F code feed command.\r\nRc\r\nRp\r\nProgrammed path\r\nTool center \r\npath\r\nFig. 5.4.2.2 (a) Internal circular cutting feedrate change\r\nIf Rc is much smaller than Rp, Rc/Rp 0; the tool stops. A minimum deceleration ratio (MDR) is to be \r\nspecified with parameter No. 1710. When Rc/Rp\u2264MDR, the feedrate of the tool is (F\u00d7MDR).\r\nIf parameter No. 1710 is 0, the minimum deceleration ratio (MDR) is at 100%.\r\nCAUTION"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a7b-a6ca-11ee-87b5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 133, "chroma:document": "CAUTION\r\nWhen internal circular cutting must be performed together with override for inner \r\ncorners, the feedrate of the tool is as follows:\r\n\u00d7 \u00d7 (override for the inner corners)\u00d7 (feedrate override) Rp\r\nRc F"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a7c-a6ca-11ee-bc48-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 134, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 105 -\r\n5.5 FEEDRATE INSTRUCTION ON IMAGINARY CIRCLE FOR \r\nA ROTARY AXIS\r\nOverview\r\nFor the feedrate instruction on imaginary circle for a rotary axis, a circle with the radius specified with \r\nparameter No. 1465 (which is referred to as an imaginary circle) is considered, and the feedrate of the \r\nrotary axis is set to the feedrate on its circumference.\r\nExplanation\r\n- Cutting feedrate\r\nConventional method"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a7d-a6ca-11ee-ada7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 134, "chroma:document": "Conventional method\r\nUsually, the feedrate of a rotary axis is set to the rotation feedrate (deg/mm).\r\nFeedrate of liner axis(X axis) X (mm min) L\r\nX F F /\r\n\u2206 = \u00d7\r\nFeedrate of rotary axis(C axis) C (deg min) L\r\nC F F /\r\n\u2206 = \u00d7\r\nSynthetic movement distance L X Y Z C (mm)\r\n2 2 2 2 = \u2206 + \u2206 + \u2206 + \u2206\r\nMovement time (min) F\r\nL T =\r\nFeedrate instruction on imaginary circle of a rotary axis\r\nFor the feedrate instruction on imaginary circle for a rotary axis, the feedrate of the rotary axis is set to"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a7e-a6ca-11ee-b996-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 134, "chroma:document": "the movement feedrate on an imaginary circle with the radius specified with parameter No. 1465.\r\nBy setting the imaginary radius to 0, the rotary axis can be excluded from feedrate calculation.\r\nRotary axis feedrate\r\nImaginary \r\nradius\r\nX\r\nY\r\nProgram example\r\nN1G91G01X10.F10.\r\nN2C10.\r\nN2\r\nN1\r\nC\r\nImaginary circle\r\nFig. 5.5 (a) \r\nFeedrate of liner axis(X axis) X (mm min) L\r\nX F F / \u2032\r\n\u2206 = \u00d7\r\nFeedrate of rotary axis(C axis) C (deg min) L\r\nC F F / \u2032\r\n\u2206 = \u00d7\r\nSynthetic movement distance (mm)\r\nlC C L X Y Z\r\n2"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a7f-a6ca-11ee-81af-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 134, "chroma:document": "lC C L X Y Z\r\n2\r\n2 2 2\r\n180 \uf8f7\r\n\uf8f8\r\n\uf8f6 \uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7 \u2206 \u2032 = \u2206 + \u2206 + \u2206 +\r\n\u03c0\r\nMovement time (min) F\r\nL T \u2032 \u2032 =\r\nlC : imaginary radius(parameter No.1465)"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a80-a6ca-11ee-8c72-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 135, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 106 -\r\nFor the feedrate instruction on imaginary circle for a rotary axis, due to the difference in how to determine \r\nthe movement distance, if a particularly small value is set for the imaginary radius, the movement on the \r\naxis will be fast. Pay careful attention to the input to the parameter.\r\nA cutting feedrate clamp is performed based on the per-axis maximum cutting feedrate parameter No."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a81-a6ca-11ee-856b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 135, "chroma:document": "1430 and the actual speed on the axis (data before conversion). Thus, if a large value is set for the \r\nimaginary radius parameter No. 1465, a command can be issued with a feedrate exceeding the setting of \r\nthe maximum cutting feedrate, and if a small value is set for the imaginary radius, the feedrate is clamped \r\nbelow the setting of the maximum cutting feedrate.\r\nNote that the feedrate instruction on imaginary circle for a rotary axis is also effective to a dry run.\r\n- AI Contour Control"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a82-a6ca-11ee-855d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 135, "chroma:document": "- AI Contour Control\r\nAI contour control is performed on the movement speed on an imaginary circumference. The movement \r\nfeedrate may, therefore, not be the feedrate for the calculation in the feedrate instruction on imaginary \r\ncircle for a rotary axis if the feedrate is changed with the feedrate control of AI contour control. The \r\nfeedrate during AI contour control is clamped with parameter No. 1432. If parameter No. 8465 is not 0, \r\nthe feedrate is clamped with parameter No. 8465."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a83-a6ca-11ee-938d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 135, "chroma:document": "- If the imaginary radius is 0 mm\r\nIf the imaginary radius is 0 mm, the travel distance on the rotary axis is 0 mm. Thus, the combined travel \r\ndistance is\r\n2 2 2 L\u2032 = \u2206X + \u2206Y + \u2206Z\r\nIt is, therefore, possible to exclude the speed component on the rotary axis and regard the movement \r\nspeed on the linear axis as specified speed F.\r\nIf only a rotary axis is specified with this setting, a movement occurs at the maximum cutting feedrate.\r\nExamples\r\n- Example 1\r\nIf, in the increment system IS-B,"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a84-a6ca-11ee-890e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 135, "chroma:document": "G91 G01 C10. F10. ;\r\nis specified,\r\n(1) If 10.000 (10 mm) is set for the imaginary radius parameter No. 1465, the calculating formula is:\r\n( )\r\n( ) ( )\r\n( / )\r\n( )\r\n( / )\r\n( )\r\n( )\r\n/ min\r\n( )\r\n2\r\n( ) ( )\r\n2\r\n0.17453292 10.4719755\r\n10\r\n1.7453292\r\n57.2957795\r\n1.7453292\r\n10\r\n10\r\n1.7453292\r\n180\r\n10 10\r\n180\r\nmin sec\r\nmm min\r\nmm\r\ndeg min\r\nmm\r\ndeg\r\nC mm\r\nmm\r\nC mm deg\r\nF\r\nL T\r\nF\r\nl C\r\nL\r\n= \u22c5 \u22c5 \u22c5 = \u22c5 \u22c5 \u22c5 \u22c5 \u22c5 \u22c5 =\r\n\u2032 \u2032 =\r\n= \u22c5 \u22c5 \u22c5 \u22c5 \u22c5 \u22c5 = \u00d7\r\n= \u22c5 \u22c5 \u22c5 \uf8f7\r\n\uf8f7\r\n\uf8f8\r\n\uf8f6\r\n\uf8ec\r\n\uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7 \uf8f7 = \uf8f8\r\n\uf8f6 \uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7 \u2206 \u2032 = \u03c0 \u03c0"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a85-a6ca-11ee-8736-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 135, "chroma:document": "\uf8f6 \uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7 \u2206 \u2032 = \u03c0 \u03c0\r\nThus, the movement time is about 10.472 sec, and the rotation speed is about 57.296 deg/min. The \r\nspeed on the imaginary radius of 10.000 mm in Fig. 5.5 (b) above is regarded as the specified speed, \r\n10.000 mm/min."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a86-a6ca-11ee-9669-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 136, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 107 -\r\n(2) If 36.000 (36 mm) is set for the imaginary radius parameter No. 1465, the movement time is:\r\n( )\r\n( ) ( )\r\n( / )\r\n( )\r\n( / )\r\n( )\r\n( )\r\n/\r\n( )\r\n2\r\n( ) ( )\r\n2\r\n0.628318530 37.6991118\r\n10\r\n6.28318530\r\n15.9154943\r\n6.28318530\r\n10\r\n10\r\n6.28318530\r\n180\r\n36 10\r\n180\r\nmin sec\r\nmm min\r\nmm\r\ndeg min\r\nmm\r\ndeg\r\nC mm min\r\nmm\r\nC mm deg\r\nF\r\nL T\r\nF\r\nl C\r\nL\r\n= \u22c5\u22c5\u22c5 = \u22c5\u22c5\u22c5 \u22c5\u22c5\u22c5 =\r\n\u2032 \u2032 =\r\n= \u22c5\u22c5\u22c5 \u22c5\u22c5\u22c5 = \u00d7\r\n= \u22c5\u22c5\u22c5 \uf8f7\r\n\uf8f7\r\n\uf8f8\r\n\uf8f6\r\n\uf8ec\r\n\uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7 \uf8f7 = \uf8f8\r\n\uf8f6 \uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7\u2206 \u2032 = \u03c0 \u03c0"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a87-a6ca-11ee-9437-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 136, "chroma:document": "\uf8f6 \uf8ec\r\n\uf8ed\r\n\uf8eb \u00d7 \u00d7\u2206 \u2032 = \u03c0 \u03c0\r\nThus, the movement time is about 37.700 sec, and the rotation speed is about 15.915 deg/min. The \r\nspeed on the imaginary radius of 36.000 mm in Fig. 5.5 (b) above is regarded as the specified speed, \r\n10.000 mm/min.\r\n10mm\r\n36mm\r\nSpecified speed\r\nF=10mm/min\r\nRotation speed when \r\n10 mm is set\r\nRotation speed when \r\n36 mm is set ...(2)\r\nFig. 5.5 (b)\r\n- Example 2\r\nIn a machine in which the tool direction is changed with a rotary axis, such as that shown in Fig. 5.5 (c), it"}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a88-a6ca-11ee-ab35-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 136, "chroma:document": "is possible to specify the movement speed at the reference position with F by enabling the feedrate \r\ninstruction on imaginary circle for a rotary axis and setting the imaginary radius parameter No. 1465 to 0 \r\nmm. Reference \r\nposition\r\nThe speed component on \r\nthe rotary axis is excluded.\r\nThe specified speed F is \r\nregarded as the movement \r\nspeed at the reference position.\r\nFig. 5.5 (c)\r\nLimitation\r\nThe feedrate instruction on imaginary circle for a rotary axis supports linear interpolation (G01) only."}


created_at: 2023-12-30 04:21:25
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a89-a6ca-11ee-98fe-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 136, "chroma:document": "It does not support the following functions:\r\n- Feed per revolution (G95)\r\n- Normal direction control\r\n- Cylindrical interpolation\r\n- PMC axis control"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a8a-a6ca-11ee-af5b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 137, "chroma:document": "5. FEED FUNCTIONS PROGRAMMING B-64694EN/01\r\n- 108 -\r\nM\r\n- Inverse time feed (G93)\r\nT\r\n- Polar coordinate interpolation\r\nNOTE\r\n1 The feedrate instruction on imaginary circle for a rotary axis is enabled if bit 0 \r\n(ROTx) of parameter No. 1006 and bit 0 (RFDx) of parameter No. 1408 are 1.\r\n2 The imaginary radius parameter No. 1465 of the feedrate instruction on \r\nimaginary circle for a rotary axis can be overwritten with a programmable \r\nparameter input (G10)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a8b-a6ca-11ee-b252-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 137, "chroma:document": "parameter input (G10).\r\n3 If the feedrate instruction on imaginary circle for a rotary axis is enabled, setting \r\n0 in the imaginary radius parameter No. 1465 and only a rotary axis is specified, \r\na movement occurs with the maximum cutting feed.\r\n4 Great care is required for the settings of bit 0 (RFDx) of parameter No. 1408 and \r\nthe imaginary radius parameter No. 1465. Of particular note is that if a small \r\nvalue is set for the imaginary radius and the feedrate instruction on imaginary"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a8c-a6ca-11ee-a872-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 137, "chroma:document": "circle for a rotary axis is used, the movement on the axis is faster than when the \r\ncommand is not used.\r\n5 If feed axis synchronization control is used in the feedrate instruction on \r\nimaginary circle for a rotary axis, the settings of parameters Nos. 1408 and 1465 \r\nfor the master axis are also used for the slave axis.\r\n5.6 DWELL\r\nFormat\r\nM\r\nG04 X_; or G04 P_;\r\nX_ :Specify a time or spindle speed (decimal point permitted)\r\nP_ :Specify a time or spindle speed (decimal point not permitted)\r\nT"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a8d-a6ca-11ee-bcec-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 137, "chroma:document": "T\r\nG04 X_ ; or G04 U_ ; or G04 P_ ;\r\nX_ :Specify a time or spindle speed (decimal point permitted)\r\nU_ :Specify a time or spindle speed (decimal point permitted)\r\nP_ :Specify a time or spindle speed (decimal point not permitted)\r\nExplanation\r\nBy specifying a dwell, the execution of the next block is delayed by the specified time. (Dwell per \r\nsecond)\r\nBy setting bit 1 (DWL) of parameter No. 3405 in the feed per revolution mode, the execution of the next"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a8e-a6ca-11ee-944e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 137, "chroma:document": "block is delayed until the rotation count of the spindle reaches the specified number. (Dwell per \r\nrevolution)\r\nTable 5.6 (a) Command value range of the dwell time (Command by X or U)\r\nIncrement system Command value range Dwell time unit\r\nIS-A 0.01 to 999999.99\r\nIS-B 0.001 to 99999.999 s or rev\r\nIS-C 0.0001 to 9999.9999"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a8f-a6ca-11ee-a0c3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 138, "chroma:document": "B-64694EN/01 PROGRAMMING 5. FEED FUNCTIONS\r\n- 109 -\r\nTable 5.6 (b) Command value range of the dwell time (Command by P)\r\nIncrement system Command value range Dwell time unit\r\nIS-A 1 to 99999999 0.01 s or rev\r\nIS-B 1 to 99999999 0.001 s or rev\r\nIS-C 1 to 99999999 0.0001 s or rev\r\nIn the case of dwell per second, the specification unit for dwell time specified with P can be fixed at 0.001 \r\nsecond by setting bit 7 (DWT) of parameter No. 1015 to 1.\r\nNOTE"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a90-a6ca-11ee-91df-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 138, "chroma:document": "NOTE\r\n1 When X, U, or P is specified without a decimal point, the specification unit does \r\nnot depend on inch/metric input. Depending on whether the X-axis is present, \r\nthe following increment system is used:\r\n- When the X-axis is present\r\nThe increment system of the X-axis is used.\r\n- When the X-axis is not present\r\nThe increment system of the reference axis is used.\r\n2 When P is specified, bit 7 (IPR) of parameter No. 1004 exercises no influence."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a91-a6ca-11ee-9f22-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 138, "chroma:document": "3 Specify dwell in a single block specifying no other codes.\r\nWhile dwell is being executed, 1 is set for diagnosis data No. 0002.\r\nM\r\nSpecify dwell also to make an exact stop in the cutting mode (G64 mode).\r\nIf the specification of P and X is omitted, an exact stop occurs.\r\nDiagnosis data\r\n2 Dwell execution status\r\nWhile dwell is being executed, 1 is displayed, and 0 is displayed during the non-execution."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a92-a6ca-11ee-a030-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 139, "chroma:document": "6. REFERENCE POSITION PROGRAMMING B-64694EN/01\r\n- 110 -\r\n6 REFERENCE POSITION\r\nA CNC machine tool has a special position where, generally, the tool is exchanged or the coordinate \r\nsystem is set, as described later. This position is referred to as a reference position.\r\n6.1 REFERENCE POSITION RETURN\r\nOverview\r\n- Reference position\r\nThe reference position is a fixed position on a machine tool to which the tool can easily be moved by the \r\nreference position return function."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a93-a6ca-11ee-9425-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 139, "chroma:document": "For example, the reference position is used as a position at which tools are automatically changed. Up to \r\nfour reference positions can be specified by setting coordinates in the machine coordinate system in \r\nparameters Nos. 1240 to 1243.\r\nReference position\r\nMachine zero point\r\n3rd reference position\r\n2nd reference position\r\n4th reference \r\nposition\r\nY\r\nX\r\nFig. 6.1 (a) Machine zero point and reference positions\r\n- Automatic reference position return (G28) and movement from the reference"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a94-a6ca-11ee-ba92-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 139, "chroma:document": "position (G29)\r\nThe automatic reference position return (G28) function returns tools automatically to the reference \r\nposition via an intermediate position along a specified axis. \r\nThe intermediate position means the relay point for the axes movement in order to avoid collision when \r\nthere is the interference object on the way of the reference position return.\r\nWhen reference position return is completed, the lamp for indicating the completion of reference position"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a95-a6ca-11ee-808d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 139, "chroma:document": "return goes on. The return from reference position (G29) function moves tools from the reference position \r\nto a specified position via an intermediate position along a specified axis."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a96-a6ca-11ee-b96e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 140, "chroma:document": "B-64694EN/01 PROGRAMMING 6. REFERENCE POSITION\r\n- 111 -\r\nA (Starting point for reference \r\nposition return)\r\nC (Destination of return from \r\nthe reference position)\r\nR (Reference position)\r\nAutomatic reference position return (G28)\r\nA \u2192 B \u2192 R\r\nMovement from the reference position (G29)\r\nB (Intermediate R \u2192 B \u2192 C\r\nposition)\r\nInterference object\r\nFig. 6.1 (b) Reference position return and movement from the reference position"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a97-a6ca-11ee-8d41-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 140, "chroma:document": "If you want to return directly the axes to the reference position from the current position, please specify \r\nthe incremental command of travel distance zero or the absolute command to current position in the G28 \r\nblock of the return axes. In this case, an intermediate position is regarded to the current position. The axes \r\nare moved to commanded position after passing the starting point of reference position return when the \r\nG29 command is specified.\r\nC (Destination of return from"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a98-a6ca-11ee-b162-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 140, "chroma:document": "C (Destination of return from \r\nthe reference position)\r\nR (Reference position)\r\nAutomatic reference position return (G28)\r\nA \u2192 R\r\nMovement from the reference position (G29)\r\nR \u2192 A \u2192 C\r\nA (Starting point of reference \r\nposition return = intermediate \r\nposition)\r\nFig. 6.1 (c) Reference position return and movement from the reference position\r\n- Reference position return check (G27)\r\nThe reference position return check (G27) is the function which checks whether the tool has correctly"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a99-a6ca-11ee-8437-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 140, "chroma:document": "returned to the reference position as specified in the program. If the tool has correctly returned to the \r\nreference position along a specified axis, the lamp for the axis for indicating the completion of reference \r\nposition return goes on.\r\nIf the tool has not reached the reference position, an alarm PS0092, \"ZERO RETURN CHECK (G27) \r\nERROR\" is issued.\r\nWhen no movement was made along the axis, whether the current position is the reference position is \r\nchecked."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a9a-a6ca-11ee-9140-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 140, "chroma:document": "checked.\r\n- In-position check disable reference position return (G28.2, G30.2)\r\nYou can disable in-position check at a middle point and reference position by specifying G28.2 or G30.2 \r\nas a reference point return command."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a9b-a6ca-11ee-9d92-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 141, "chroma:document": "6. REFERENCE POSITION PROGRAMMING B-64694EN/01\r\n- 112 -\r\nFormat\r\n- Automatic reference position return and 2nd/3rd/4th reference position return\r\nIn-position check disable reference position return\r\nG28 IP_; Reference position return\r\nG30 P2 IP_; 2nd reference position return (P2 can be omitted.)\r\nG30 P3 IP_; 3rd reference position return\r\nG30 P4 IP_; 4th reference position return\r\nG28.2 IP_; In-position check disable reference position return"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a9c-a6ca-11ee-8319-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 141, "chroma:document": "G30.2 P2 IP_; In-position check disable 2nd reference position return (P2 can be \r\nomitted.)\r\nG30.2 P3 IP_; In-position check disable 3rd reference position return\r\nG30.2 P4 IP_; In-position check disable 4th reference position return\r\nIP : Specify the intermediate position in the absolute coordinate system.\r\n(absolute/incremental programming)\r\nThere is no need to calculate an actual travel distance between the intermediate \r\nposition and the reference position.\r\n- Movement from reference position"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a9d-a6ca-11ee-9bab-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 141, "chroma:document": "G29 IP_;\r\nIP : Specify the destination of return from the reference position in the absolute coordinate \r\nsystem. (absolute/incremental programming)\r\nThe intermediate position is determined by G28 or G30 specified immediately before \r\nthis command.\r\n- Reference position return check\r\nG27 IP_;\r\nIP : Specify positioning to the reference position in the absolute coordinate system so as to \r\nreturn to the reference position. (absolute/incremental programming)\r\nExplanation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a9e-a6ca-11ee-9cb2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 141, "chroma:document": "Explanation\r\n- Automatic reference position return (G28)\r\nPositioning to the intermediate or reference positions are performed at the rapid traverse rate of each axis.\r\nTherefore, for safety, the compensation functions, such as the tool radius compensation and tool length \r\ncompensation, should be cancelled before executing this command.\r\nThe coordinates for the intermediate position are stored in the CNC for the axes for which a value is"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0a9f-a6ca-11ee-8651-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 141, "chroma:document": "specified in a G28 block. For the other axes, the previously specified coordinates are used. \r\n(Example)\r\nN1 G28 X40.0 ; (The tool moves to the reference position along the X-axis and the \r\nintermediate position (X40.0) is stored.)\r\nN2 G28 Y60.0 ; (The tool moves to the reference position along the Y-axis and the \r\nintermediate position (Y60.0) is stored.)\r\nN3 G29 X10.0 Y20.0 ; (The tool moves to the position specified with G29 via the intermediate"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa0-a6ca-11ee-a23f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 141, "chroma:document": "position (X40.0 Y60.0) previously specified with G28 along the X-axis and\r\nY-axis.)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa1-a6ca-11ee-a530-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "B-64694EN/01 PROGRAMMING 6. REFERENCE POSITION\r\n- 113 -\r\n- 2nd, 3rd, and 4th reference position return (G30)\r\nThe 2nd, 3rd, and 4th reference position return (G30) function can be used after the reference positions \r\nare established.\r\nThe G30 command is generally used when the automatic tool changer (ATC) position differs from the \r\nreference position.\r\n- Movement from the reference position (G29)\r\nThis function is executed after the tool is returned to the reference position by G28 or G30."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa2-a6ca-11ee-a73b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "For incremental programming, the command value specifies the incremental value from the intermediate \r\npoint.\r\nThe tool moves to the intermediate and specified positions at the feedrate specified with a parameter.\r\nWhen the workpiece coordinate system is changed after the tool reaches the reference position through \r\nthe intermediate point by the G28 command, the intermediate point also shifts to a new coordinate system."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa3-a6ca-11ee-be7e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "If G29 is then commanded, the tool moves to the commanded position through the intermediate point \r\nwhich has been shifted to the new coordinate system.\r\nThe same operations are performed also for G30 command.\r\nAfter the power is turned on, an alarm PS0305, \u201cINTERMEDIATE POSITION IS NOT ASSIGNED\u201d is \r\nissued if an attempt is made to execute G29 (movement from the reference position) before G28 \r\n(automatic reference position return) or G30 (2nd, 3rd, and 4th reference position return) is executed."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa4-a6ca-11ee-b74d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "- Reference position return check (G27)\r\nG27 command positions the tool at rapid traverse rate. If the tool reaches the reference position, the lamp \r\nfor indicating the completion of reference position return lights up. \r\nWhen the tool returns to the reference position along only one axis, the lamp for the axis for indicating \r\nthe completion of reference position return lights up.\r\nAfter positioning, if the tool has not reached the reference position along a specified axis, an alarm"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa5-a6ca-11ee-8c9b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "PS0092, \"ZERO RETURN CHECK (G27) ERROR\" is issued.\r\nWhen no movement was made along the axis, whether the current position is the reference position is \r\nchecked.\r\n- In-position check disable reference position return (G28.2, G30.2)\r\nYou can disable in-position check at a middle point and reference position by specifying G28.2 or G30.2 \r\nas a reference point return command.\r\nDisabling the in-position check at the middle point and reference position reduces the cycle time."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa6-a6ca-11ee-a052-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "Note that, if the G28.2 command causes reference position return at low speed, the in-position check is \r\ndisabled at the middle point but enabled at the reference position.\r\nIn the operations of and restrictions on reference position return, G28.2 and G30.2 are the same as G28 \r\nand G30, except for in-position check.\r\n- Setting of the reference position return feedrate\r\nBefore a reference position is established with the first reference position return after power-on, the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa7-a6ca-11ee-80da-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 142, "chroma:document": "manual and automatic reference position return feedrates and automatic rapid traverse rate conform to the \r\nsetting of parameter No. 1428 for each axis. \r\nAfter a reference position is established upon the completion of reference position return, the manual \r\nreference position return feedrate conforms to the setting of the parameter No. 1428 for each axis."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa8-a6ca-11ee-a57c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 143, "chroma:document": "6. REFERENCE POSITION PROGRAMMING B-64694EN/01\r\n- 114 -\r\nNOTE\r\n1 To this feedrate, a rapid traverse override (F0,25,50,100%) is applied, for which \r\nthe setting is 100%.\r\n2 After a reference position has been established upon the completion of reference \r\nposition return, the automatic reference position return feedrate will conform to \r\nthe ordinary rapid traverse rate.\r\n3 When a value is set for parameter No. 1428, the feedrates conform to the \r\nparameter settings shown below."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aa9-a6ca-11ee-9d93-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 143, "chroma:document": "1420: Rapid traverse rate 1423: Jog feedrate\r\n1424: Manual rapid traverse rate 1428: Reference position return feedrate\r\nWhen parameter No. 1428 is set to 0, the feedrates conform to the parameter \r\nsettings shown below.\r\n*1 By using bit 2 (JZR) of parameter No. 1401, the manual reference position\r\nreturn feedrate can always be set as a jog feedrate.\r\n*2 When bit 0 (RPD) of parameter No. 1401 is 1, the setting of parameter No. \r\n1424 (manual rapid traverse rate) is used."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aaa-a6ca-11ee-ab36-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 143, "chroma:document": "When the setting of parameter No. 1424 (manual rapid traverse rate) is 0, \r\nparameter No. 1420 (rapid traverse rate) is used.\r\n*3 When reference position return without dogs is performed in rapid traverse \r\nmode, or when manual reference position return is performed in rapid \r\ntraverse mode regardless of deceleration dogs after a reference position is \r\nestablished, the reference position return feedrate for each of these functions \r\n(setting of bit 1 (DLF) of parameter No. 1404) is used.\r\nLimitation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aab-a6ca-11ee-9700-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 143, "chroma:document": "Limitation\r\n- Status the machine lock being turned on\r\nThe lamp for indicating the completion of reference position return does not go on when the machine lock \r\nis turned on, even when the tool has automatically returned to the reference position. In this case, it is not \r\nchecked whether the tool has returned to the reference position even when a reference position return \r\ncheck command is specified.\r\n- When automatic reference position return (G28) is executed if no reference \r\nposition is established"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aac-a6ca-11ee-8a30-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 143, "chroma:document": "position is established\r\nWhen automatic reference position return (G28) is executed if no reference position is established, \r\nmovement from the intermediate position in a reference position direction is the same as that in manual \r\nreference position return.\r\n(This movement is referred to as a low-speed type of automatic reference position return (G28).)\r\nBefore a reference position\r\nis established\r\nAfter a reference position is \r\nestablished\r\nAutomatic reference position return (G28) No. 1428 No.1420"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aad-a6ca-11ee-ad66-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 143, "chroma:document": "Automatic rapid traverse (G00) No.1428 No.1420\r\nManual reference position return (*1) No.1428 No.1428 (*3)\r\nManual rapid traverse rate No.1423 (*2) No.1424\r\nBefore a reference position\r\nis established\r\nAfter a reference position is \r\nestablished\r\nAutomatic reference position return (G28) No. 1420 No.1420\r\nAutomatic rapid traverse (G00) No.1420 No.1420\r\nManual reference position return (*1) No.1424 No.1424 (*3)\r\nManual rapid traverse rate No.1423 (*2) No.1424"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aae-a6ca-11ee-8d2f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "B-64694EN/01 PROGRAMMING 6. REFERENCE POSITION\r\n- 115 -\r\nIn this case, the tool moves in the direction for reference position return specified in bit 5 (ZMIx) of \r\nparameter No. 1006. Therefore the specified intermediate position must be a position to which reference \r\nposition return is possible.\r\nNOTE\r\nWhen automatic reference position return (G28) is executed after a reference \r\nposition is established, positioning is performed from the intermediate position to"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aaf-a6ca-11ee-8b0e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "the reference position. This movement is referred to as a high-speed type of \r\nautomatic reference position return (G28).\r\n- Reference position return check in an offset mode\r\nIn an offset mode, the position to be reached by the reference position return check is the position \r\nobtained by adding the offset value. \r\nTherefore, if the position with the offset value added is not the reference position, the lamp for indicating"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab0-a6ca-11ee-b9be-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "the completion of reference position return does not light up, but an alarm is displayed instead. Usually, \r\ncancel offsets before G27 is commanded.\r\n- Lighting the lamp when the programmed position does not coincide with the \r\nreference position\r\nWhen the machine tool system is an inch system with metric input, the lamp for indicating the completion \r\nof reference position return may also light up even if the programmed position is shifted from the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab1-a6ca-11ee-b2f3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "reference position by the least setting increment. This is because the least setting increment of the \r\nmachine tool system is smaller than its least command increment.\r\n- Automatic reference position return (G28) if roll over is used on a rotation axis \r\n(type A)\r\nIf, in an absolute command for automatic reference position return (G28) on a rotation axis, the rotation \r\naxis is of type A (bit 0 (ROT) of parameter No. 1006 = 1 and bit 1 (ROS) of parameter No. 1006 = 0) and"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab2-a6ca-11ee-8ddc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "roll over is used (bit 0 (ROA) of parameter No. 1008 = 1), movement to the midpoint follows the setting \r\nof bit 1 (RAB) of parameter No. 1008, and movement from the midpoint to the reference position follows \r\nthe setting of bit 5 (ZMI) of parameter No. 1006.\r\nIf, however, bit 6 (RRF) of parameter No. 1008 is set to 1, movement from the midpoint to the reference \r\nposition also follows the setting of bit 1 (RAB) of parameter No. 1008.\r\n- Restriction on automatic reference position return (G28)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab3-a6ca-11ee-bfad-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "There are restrictions when the following functions are used. Please refer to each function for detail.\r\n- Mirror image\r\n- Plane conversion\r\n- Machine lock\r\n- Extension of the manual handle retrace function\r\n- Improvement of tool compensation for tool retract and recover\r\n- Retrace\r\n- Positioning by optimum accelerations\r\n- In-position check disable signal\r\n- Axis switching\r\n- Spindle electronic gear box\r\n- Superimposed control\r\n- Simple spindle electronic gear box\r\n- Electronic gear box\r\n- Figure copying"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab4-a6ca-11ee-910e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 144, "chroma:document": "- Figure copying\r\n- Programmable mirror image\r\n- Flexible synchronization control\r\n- Inter-path flexible synchronization control"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab5-a6ca-11ee-ae85-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 145, "chroma:document": "6. REFERENCE POSITION PROGRAMMING B-64694EN/01\r\n- 116 -\r\n- High precision oscillation function\r\n- High-speed program check function\r\n- Synchronous control\r\n- Composite control\r\n- Tool functions of lathe system\r\n- Normal direction control\r\n- Compensation function\r\n- Coordinate system rotation\r\n- Cutter compensation and tool nose radius compensation\r\n- Tool length compensation\r\n- Scaling\r\n- Restriction on 2nd, 3rd, and 4th reference position return (G30)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab6-a6ca-11ee-9463-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 145, "chroma:document": "There are restrictions when the following functions are used. Please refer to each function for detail.\r\n- Plane conversion\r\n- Machine lock\r\n- Improvement of tool compensation for tool retract and recover\r\n- Retrace\r\n- In-position check disable signal\r\n- Axis switching\r\n- Superimposed control\r\n- Electronic gear box\r\n- Programmable mirror image\r\n- Flexible synchronization control\r\n- Tool functions of lathe system\r\n- Normal direction control\r\n- Compensation function\r\n- Coordinate system rotation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab7-a6ca-11ee-9017-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 145, "chroma:document": "- Coordinate system rotation\r\n- Cutter compensation and tool nose radius compensation\r\n- Tool length compensation\r\n- Scaling\r\n- Restriction on reference position return check (G27)\r\nThere are restrictions when the following functions are used. Please refer to each function for detail.\r\n- Machine lock\r\n- Retrace\r\n- Superimposed control\r\n- Electronic gear box\r\n- Programmable mirror image\r\n- Flexible synchronization control\r\n- Compensation function\r\n- Coordinate system rotation\r\n- Scaling"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab8-a6ca-11ee-b0a4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 146, "chroma:document": "B-64694EN/01 PROGRAMMING 6. REFERENCE POSITION\r\n- 117 -\r\nExample\r\n- When the reference position return is executed directly from the current \r\nposition without passing an intermediate position.\r\nG28G91X0Y0 ; (The axes are directly moved to reference position R from starting point A \r\nwithout passing an intermediate position.)\r\n200\r\n300\r\n500\r\n200 1000 1300\r\nY\r\nX\r\nAutomatic reference position return (G28)\r\nA \u2192 R\r\nA (Starting point for reference position return)\r\nR (Reference position)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ab9-a6ca-11ee-b6b9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 146, "chroma:document": "R (Reference position)\r\nFig. 6.1 (d) Reference position return and movement from the reference position\r\n- When the movement passes an intermediate position.\r\nG28G90X1000.0Y500.0 ; (Programs movement from A to B. The tool moves to reference position R via \r\nintermediate position B.)\r\nT1111 ; (Changing the tool at the reference position)\r\nG29X1300.0Y200.0 ; (Programs movement from B to C. The tool moves from reference position R \r\nto C specified with G29 via intermediate position B.)\r\n200\r\n300\r\n500"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aba-a6ca-11ee-818d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 146, "chroma:document": "200\r\n300\r\n500\r\n200 1000 1300\r\nY\r\nX\r\nAutomatic reference position return (G28)\r\nA \u2192 B \u2192 R\r\nMovement from the reference position (G29)\r\nR \u2192 B \u2192 C\r\nA (Starting point for reference \r\nposition return)\r\nB (Intermediate \r\nposition)\r\nC (Destination of return from the \r\nreference position)\r\nR (Reference position)\r\nFig. 6.1 (e) Reference position return and movement from the reference position"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0abb-a6ca-11ee-a518-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 147, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 118 -\r\n7 COORDINATE SYSTEM\r\nBy teaching the CNC a desired tool position, the tool can be moved to the position. Such a tool position is \r\nrepresented by coordinates in a coordinate system. Coordinates are specified using program axes.\r\nWhen three program axes, the X-axis, Y-axis, and Z-axis, are used, coordinates are specified as follows:\r\n X_Y_Z_ \r\nThis command is referred to as a dimension word."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0abc-a6ca-11ee-a6cf-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 147, "chroma:document": "- For milling machining (Tool position specified by X40.0Y50.0Z25.0 )\r\nZ\r\nY\r\nX\r\n40.0\r\n50.0\r\n25.0\r\nFig. 7 (a)\r\n- For lathe cutting (Tool position specified by X50.0 Z40.0)\r\nX\r\nZero point\r\n40.0\r\nZ\r\nFig. 7 (b)\r\nCoordinates are specified in one of following three coordinate systems:\r\n(1) Machine coordinate system\r\n(2) Workpiece coordinate system\r\n(3) Local coordinate system\r\nThe number of the axes of a coordinate system varies from one machine to another. So, in this manual, a"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0abd-a6ca-11ee-bdfa-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 147, "chroma:document": "dimension word is represented as IP_."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0abe-a6ca-11ee-b32c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 148, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 119 -\r\n7.1 MACHINE COORDINATE SYSTEM\r\nThe point that is specific to a machine and serves as the reference of the machine is referred to as the \r\nmachine zero point. A machine tool builder sets a machine zero point for each machine.\r\nA coordinate system with a machine zero point set as its origin is referred to as a machine coordinate \r\nsystem.\r\nA machine coordinate system is set by performing manual reference position return after power-on (see"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0abf-a6ca-11ee-a97e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 148, "chroma:document": "III Section 3.1, \u201cMANUAL REFERENCE POSITION RETURN\u201d). A machine coordinate system, once \r\nset, remains unchanged until the power is turned off.\r\nThe reference position is not always the origin of the machine coordinate system.\r\n(See Item, \"Setting a machine coordinate system\" described later.)\r\nFormat\r\nM\r\n(G90)G53 IP _ P1;\r\nIP_ : Absolute command dimension word\r\nP1 : Enables the high-speed G53 function.\r\n(G90)G53.2 G01 IP\uff3fF\uff3f;\r\nIP_ : Absolute command dimension word\r\nF_ : Feedrate\r\nT\r\nG53 IP _ P1;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac0-a6ca-11ee-a17b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 148, "chroma:document": "F_ : Feedrate\r\nT\r\nG53 IP _ P1;\r\nIP_ : Absolute command dimension word\r\nP1 : Enables the high-speed G53 function.\r\nG53.2 G01 IP\uff3fF\uff3f;\r\nIP_ : Absolute command dimension word\r\nF_ : Feedrate\r\nExplanation\r\n- Selecting a machine coordinate system (G53)\r\nWhen a command is specified the position on a machine coordinate system, the tool moves to the position \r\nby rapid traverse. G53, which is used to select a machine coordinate system, is a one-shot G code; that is,"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac1-a6ca-11ee-a0c6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 148, "chroma:document": "it is valid only in the block in which it is specified on a machine coordinate system. Specify an absolute \r\ncommand for G53. When an incremental command is specified, the G53 command is ignored. When the \r\ntool is to be moved to a machine-specific position such as a tool change position, program the movement \r\nin a machine coordinate system based on G53.\r\n- High-speed G53 function\r\nThis function enables the inter-rapid traverse block overlap function between machine coordinate"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac2-a6ca-11ee-aa29-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 148, "chroma:document": "selection command (G53) and positioning (rapid traverse) command (G00) blocks, thus making it \r\npossible to execute the next rapid traverse command (G00) without decelerating to a stop at the end of the \r\nmachine coordinate selection command (G53). Therefore, high-speed positioning is available even when \r\nthe machine coordinate selection command (G53) is used.\r\nSpecifying P1 in a G53 block enables the high-speed G53 function."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac3-a6ca-11ee-8f38-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 149, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 120 -\r\n- Selecting a machine coordinate system with feedrate (G53.2)\r\nPositioning of machine coordinate system at a feed rate is available with the command of G53.2. The feed \r\nrate can be used in the modal of G01.\r\nG53.2 is one shot G code. Moreover, the tool offset value is temporarily canceled by G53.2 command \r\nlike G53.\r\nAs for the time constant, a usual feed rate are used. At the point of G53.2 command, the axis decelerates"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac4-a6ca-11ee-b539-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 149, "chroma:document": "to a stop once like G53 command.\r\nFeed per minute, feed per revolution, and inverse time feed of G codes of 05 group are available.\r\nWhen group 01 G-code except G00/G01 is commanded with G53.2, the alarm PS5372, \u201cIMPROPER \r\nMODAL G-CODE\u201d is generated. And, when G53.2 is commanded while group 01 Modal G-code is the \r\none except G00/G01, the alarm PS5372, \u201cIMPROPER MODAL G-CODE (G53.2)\u201d is generated.\r\nLimitation\r\n- Cancel of the compensation function"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac5-a6ca-11ee-b2a2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 149, "chroma:document": "When the G53 command is specified, cancel the compensation functions such as the cutter compensation, \r\ntool length compensation, tool nose radius compensation, and tool offset beforehand.\r\n- G53 command immediately after power supply turning on\r\nThe Reference point by the manual Reference point return or G28 command should return once after \r\nturning on the power supply because it should set the machine coordinate system before it instructs in \r\nG53."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac6-a6ca-11ee-98b0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 149, "chroma:document": "G53. \r\nHowever, the operation is unnecessary for the machine with the absolute-position detector.\r\n- Specification in the same block\r\nM\r\nCommands G50/G51, G50.1/G51.1, and G68/G69 cannot be specified in the same block where the G53 \r\ncommand is specified.\r\nT\r\nCommands G50/G51 (except for G code system A), G50.1/G51.1, and G68.1/G69.1 cannot be specified \r\nin the same block where the G53 command is specified.\r\nNote\r\nNOTE\r\nG53 is a G code for disabling buffering."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac7-a6ca-11ee-a381-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 150, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 121 -\r\nReference\r\n- Setting a machine coordinate system\r\nWhen manual reference position return is performed after power-on, a machine coordinate system is set \r\nso that the reference position is at the coordinate values of (a, \u03b2) set using parameter No.1240.\r\n\u03b2\r\nReference position\r\nMachine coordinate system\r\nMachine zero point\r\na\r\nFig. 7.1 (a)\r\nExample (selecting a machine coordinate system with specifying a feedrate)\r\nN1 G90 G01 ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac8-a6ca-11ee-bc6a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 150, "chroma:document": "N1 G90 G01 ;\r\nN2 G53.2 X50.0 Y100.0 F1000 ; Absolute command with feedrate F1000\r\nN3 G53.2 X150.0 F500 ; Absolute command with feedrate F500\r\nFig. 7.1 (b)\r\nY axis\r\n100\r\n0\r\n50 150 X axis\r\nTemporarily decelerates and stops."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ac9-a6ca-11ee-8852-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 151, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 122 -\r\n7.2 WORKPIECE COORDINATE SYSTEM\r\nOverview\r\nA coordinate system used for machining a workpiece is referred to as a workpiece coordinate system. A \r\nworkpiece coordinate system is to be set with the CNC beforehand (setting a workpiece coordinate \r\nsystem).\r\nA machining program sets a workpiece coordinate system (selecting a workpiece coordinate system).\r\nA set workpiece coordinate system can be changed by shifting its origin (changing a workpiece"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aca-a6ca-11ee-985b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 151, "chroma:document": "coordinate system). \r\n7.2.1 Setting a Workpiece Coordinate System\r\nA workpiece coordinate system can be set using one of three methods:\r\n(1) Method using a workpiece coordinate system setting G code\r\nA workpiece coordinate system is set by specifying a value in the program after a workpiece \r\ncoordinate system setting G code.\r\n(2) Automatic setting\r\nIf bit 0 (ZPR) of parameter No. 1201 is set to 1, a workpiece coordinate system is automatically set"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0acb-a6ca-11ee-86d3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 151, "chroma:document": "when manual reference position return is performed. (See Section, \u201cMANUAL REFERENCE \r\nPOSITION RETURN\u201d.)\r\n(3) Method using a workpiece coordinate system selection G code\r\nSix workpiece coordinate systems can be set beforehand using the MDI unit. Program commands \r\nG54 to G59 can be used to select the workpiece axis to be used. (See Subsection, \u201cDisplaying and \r\nSetting the Workpiece Origin Offset Value\u201d.)\r\nWhen using an absolute command, establish the workpiece coordinate system in any of the above ways."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0acc-a6ca-11ee-a7b3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 151, "chroma:document": "Format\r\n- Setting a workpiece coordinate system\r\nM\r\n(G90) G92 IP_\r\nT\r\nG50 IP_\r\nExplanation\r\nA workpiece coordinate system is set so that a point on the tool, such as the tool tip, is at specified \r\ncoordinates.\r\nM\r\nIf a coordinate system is set using G92 during tool length offset, a coordinate system in which the \r\nposition before offset matches the position specified in G92 is set. Cutter compensation is cancelled \r\ntemporarily with G92.\r\nT"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0acd-a6ca-11ee-92d6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 151, "chroma:document": "temporarily with G92.\r\nT\r\nIf IP_ is an incremental command value, the workpiece coordinate system is defined so that the current \r\ntool position coincides with the result of adding the specified incremental value to the coordinates of the \r\nprevious tool position.\r\nWhen bit 0 (WAB) of parameter No. 11279 is set to 1, the setting of the workpiece coordinate system is \r\nexecuted with absolute value even if the incremental mode (G91) in the G-code system B/C of the lathe \r\nsystem is selected."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ace-a6ca-11ee-9b54-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 151, "chroma:document": "system is selected.\r\nIf a coordinate system is set using G50 during offset, a coordinate system in which the position before \r\noffset matches the position specified in G50 is set."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0acf-a6ca-11ee-8cdb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 152, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 123 -\r\nExample\r\nM\r\n25.2 X\r\nZ\r\n23.0\r\n0\r\nX\r\nZ\r\n600.0\r\n1200.0\r\n0\r\nIf an absolute command is issued, the \r\nbase point moves to the commanded \r\nposition. In order to move the tool tip to \r\nthe commanded position, the difference \r\nfrom the tool tip to the base point is \r\ncompensated by tool length offset (see \r\nSection, \u201cTOOL LENGTH \r\nCOMPENSATION (G43, G44, G49)\u201d).\r\n(Example 2)\r\nSetting the coordinate system by the G92X600.0Z1200.0; command (The"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad0-a6ca-11ee-a95c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 152, "chroma:document": "base point on the tool holder is the start point for the program.)\r\nBase point\r\n(Example 1)\r\nSetting the coordinate system by the \r\nG92X25.2Z23.0; command (The tool tip is the start \r\npoint for the program.)\r\nFig. 7.2.1 (a)\r\nT\r\nFig. 7.2.1 (b)\r\nCAUTION\r\nThe set workpiece coordinate system depends on diameter programming or \r\nradius programming.\r\nNotes\r\n- Manual reference position return\r\nWhen the manual reference position return is performed, the value of the workpiece coordinate system set"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad1-a6ca-11ee-9048-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 152, "chroma:document": "by G code (G92, or G50 for the lathe system G-code system A) is cleared to 0. And when the automatic \r\nreference position return (G28) is performed, this workpiece coordinate system is not cleared to 0 but \r\nstored."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad2-a6ca-11ee-a0ff-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 153, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 124 -\r\n- Command for setting a workpiece coordinate system / clamp at maximum \r\nspindle speed in the tool length compensation mode\r\nExecuting a workpiece coordinate system setting G code command (G92 or, for G code system A in the \r\nlathe system, G50) presets a coordinate system in such a way that the specified position will be a \r\npre-compensation position.\r\nHowever, setting for workpiece coordinate system / clamp at maximum spindle speed cannot be used"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad3-a6ca-11ee-aa06-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 153, "chroma:document": "together with a block where tool length compensation vectors vary. For example, it cannot be used \r\ntogether with the following blocks.\r\nExample\r\n1 Block in which G43/G44 is issued\r\n2 Block which is in the G43 or G44 mode and in which an H code is issued\r\n3 Block which is in the G43 or G44 mode and in which G49 is issued\r\n4 Block in which, in the G43 or G44 mode, compensation vectors are canceled \r\nusing a G code such as G28 or G53 and then resumed again"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad4-a6ca-11ee-ae4d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 153, "chroma:document": "The current tool length offset can not be changed by following method:\r\nStop operation just before this G code, and change the correct offset by MDI or other method.\r\n7.2.2 Selecting a Workpiece Coordinate System\r\nThe user can choose from set workpiece coordinate systems as described below. (For information about \r\nthe methods of setting, see Subsection, \u201cSetting a Workpiece Coordinate System\u201d.)\r\n(1) Once a workpiece coordinate system is set by a workpiece coordinate system setting G code or by"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad5-a6ca-11ee-975b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 153, "chroma:document": "automatic workpiece coordinate system setting, absolute commands indicate positions in the \r\nworkpiece coordinate system.\r\n(2) Choosing from six workpiece coordinate systems set using the MDI unit\r\nBy specifying a G code from G54 to G59, one of the workpiece coordinate systems 1 to 6 can be \r\nselected.\r\nG54 : Workpiece coordinate system 1 G55 : Workpiece coordinate system 2\r\nG56 : Workpiece coordinate system 3 G57 : Workpiece coordinate system 4"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad6-a6ca-11ee-90f7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 153, "chroma:document": "G58 : Workpiece coordinate system 5 G59 : Workpiece coordinate system 6\r\nWorkpiece coordinate system 1 to 6 are established after reference position return after the power is \r\nturned on. When the power is turned on, G54 coordinate system is selected.\r\nWhen bit 2 (G92) of parameter No. 1202 is set to 1, executing the workpiece coordinate system setting \r\nG92 code command results in the issue of an alarm PS0010, \u201cIMPROPER G-CODE\u201d. This is designed to \r\nprevent the user from confusing coordinate systems."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad7-a6ca-11ee-b48b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 153, "chroma:document": "CAUTION\r\nThe set workpiece origin offset value depends on diameter programming or \r\nradius programming."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad8-a6ca-11ee-8168-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 154, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 125 -\r\nExample\r\nX\r\nY\r\n100.0\r\n40.\r\nWorkpiece coordinate system 2 (G55)\r\nIn this example, positioning is made to\r\npositions (X=40.0, Y=100.0) in workpiece\r\ncoordinate system 2.\r\nG90 G55 G00 X40.0 Y100.0 ;\r\nFig. 7.2.2\r\n7.2.3 Changing Workpiece Coordinate System\r\nThe six workpiece coordinate systems specified with G54 to G59 can be changed by changing an external \r\nworkpiece origin offset value or workpiece origin offset value."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ad9-a6ca-11ee-87ba-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 154, "chroma:document": "Three methods are available to change an external workpiece origin offset value or workpiece origin \r\noffset value.\r\n(1) Inputting from the MDI unit (see Subsection, \u201cDisplaying and Setting the Workpiece Origin Offset \r\nValue\u201d.)\r\n(2) Programming (using a programmable data input G code or a workpiece coordinate system setting G \r\ncode)\r\n(3) Using the external data input function\r\nAn external workpiece origin offset value can be changed by input signal to CNC. Refer to machine"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ada-a6ca-11ee-90e0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 154, "chroma:document": "tool builder's manual for details.\r\nWorkpiece \r\ncoordinate system 1 \r\n(G54)\r\nWorkpiece \r\ncoordinate system 2 \r\n(G55)\r\nWorkpiece \r\ncoordinate system 3 \r\n(G56)\r\nWorkpiece \r\ncoordinate system 4 \r\n(G57)\r\nWorkpiece coordinate \r\nsystem 5 (G58)\r\nWorkpiece coordinate \r\nsystem 6 (G59)\r\nZOFS2 ZOFS3 ZOFS4\r\nZOFS5\r\nZOFS1\r\nMachine zero point ZOFS6\r\nEXOFS : External workpiece origin offset value\r\nZOFS1 to ZOFS6 : Workpiece origin offset value\r\nEXOFS"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0adb-a6ca-11ee-b6c7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 154, "chroma:document": "EXOFS\r\nFig. 7.2.3 (a) Changing an external workpiece origin offset value or workpiece origin offset value\r\nFormat\r\n- Changing by inputting programmable data\r\nG10 L2 Pp IP_;\r\np=0 : External workpiece origin offset value\r\np=1 to 6 : Workpiece origin offset value correspond to workpiece coordinate system 1 to 6\r\nIP_ : For an absolute command, workpiece origin offset for each axis.\r\nFor an incremental command, value to be added to the set workpiece origin offset for"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0adc-a6ca-11ee-9b1b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 154, "chroma:document": "each axis (the result of addition becomes the new workpiece origin offset)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0add-a6ca-11ee-aba1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 155, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 126 -\r\n- Changing by setting a workpiece coordinate system\r\nM\r\nG92 IP_ ;\r\nT\r\nG50 IP_ ;\r\nExplanation\r\n- Changing by inputting programmable data\r\nBy specifying a programmable data input G code, the workpiece origin offset value can be changed for \r\neach workpiece coordinate system.\r\n- Changing by setting a workpiece coordinate system\r\nBy specifying a workpiece coordinate system setting G code, the workpiece coordinate system (selected"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ade-a6ca-11ee-bce0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 155, "chroma:document": "with a code from G54 to G59) is shifted to set a new workpiece coordinate system so that the current tool \r\nposition matches the specified coordinates (IP_).\r\nThen, the amount of coordinate system shift is added to all the workpiece origin offset values. This means \r\nthat all the workpiece coordinate systems are shifted by the same amount.\r\nCAUTION\r\nWhen a coordinate system is set with workpiece coordinate system setting G92 \r\ncode command after an external workpiece origin offset value is set, the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0adf-a6ca-11ee-b16e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 155, "chroma:document": "coordinate system is not affected by the external workpiece origin offset value. \r\nWhen G92X100.0Z80.0; is specified, for example, the coordinate system having \r\nits current tool reference position at X = 100.0 and Z = 80.0 is set.\r\nT\r\nIf IP is an incremental command value, the workpiece coordinate system is defined so that the current tool \r\nposition coincides with the result of adding the specified incremental value to the coordinates of the \r\nprevious tool position. (Coordinate system shift)\r\nExample"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae0-a6ca-11ee-9ba6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 155, "chroma:document": "Example\r\nM\r\nX\r\nX\u2019\r\nY Y\u2019\r\nTool position\r\nA\r\n160 100\r\n100\r\n100\r\n200\r\nIf G92X100Y100; is commanded when the tool is positioned\r\nat (200, 160) in G54 mode, workpiece coordinate system 1\r\n(X' - Y') shifted by vector A is created.\r\nNew workpiece coordinate system\r\nOriginal workpiece coordinate system\r\nG54 workpiece coordinate system\r\n60\r\nFig. 7.2.3 (b)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae1-a6ca-11ee-afb6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 156, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 127 -\r\nSuppose that a G54 workpiece coordinate \r\nsystem is specified. Then, a G55 workpiece \r\ncoordinate system where the black circle on \r\nthe tool (figure at the left) is at (600.0,1200.0) \r\ncan be set with the following command if the \r\nrelative relationship between the G54 \r\nworkpiece coordinate system and G55 \r\nworkpiece coordinate system is set correctly:\r\nG92X600.0Z1200.0;\r\nAlso, suppose that pallets are loaded at two"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae2-a6ca-11ee-870f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 156, "chroma:document": "different positions. If the relative relationship \r\nof the coordinate systems of the pallets at the \r\ntwo positions is correctly set by handling the \r\ncoordinate systems as the G54 workpiece \r\ncoordinate system and G55 workpiece \r\ncoordinate system, a coordinate system shift \r\nwith G92 in one pallet causes the same \r\ncoordinate system shift in the other pallet. \r\nThis means that workpieces on two pallets \r\ncan be machined with the same program just \r\nby specifying G54 or G55."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae3-a6ca-11ee-8b14-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 156, "chroma:document": "by specifying G54 or G55.\r\nG54 workpiece coordinate system\r\n1200.0\r\nZ\r\nZ\r\nX'\r\n600.0\r\n600.0\r\n1200.0\r\nG55 workpiece coordinate system\r\nZ'\r\nZ'\r\nX\r\nX\r\nX' - Z' ...........New workpiece coordinate system\r\nX - Z .............Original workpiece coordinate system\r\nA : Offset value created by G92\r\nB : Workpiece origin offset value in the G54\r\nC : Workpiece origin offset value in the G55\r\nA\r\nB\r\nC\r\nA\r\nX'\r\nA\r\nFig. 7.2.3 (c)\r\nExample\r\nT\r\nX X'\r\nTool position\r\nA\r\n160 100\r\n100\r\n100\r\n200"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae4-a6ca-11ee-87d4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 156, "chroma:document": "A\r\n160 100\r\n100\r\n100\r\n200\r\nIf G50X100Z100; is commanded when the tool is\r\npositioned at (200, 160) in G54 mode, workpiece\r\ncoordinate system 1 (X' - Z') shifted by vector A is\r\ncreated.\r\nNew workpiece coordinate system\r\nOriginal workpiece coordinate system\r\nG54 workpiece coordinate system\r\n60\r\nZ\r\nZ'\r\nFig. 7.2.3 (d)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae5-a6ca-11ee-be93-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 157, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 128 -\r\nFig. 7.2.3 (e)\r\n7.2.4 Workpiece Coordinate System Preset (G92.1)\r\nThe workpiece coordinate system preset function presets a workpiece coordinate system shifted by \r\nmanual intervention to the pre-shift workpiece coordinate system. The latter system is displaced from the \r\nmachine zero point by a workpiece origin offset value.\r\nThere are two methods for using the workpiece coordinate system preset function. One method uses a"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae6-a6ca-11ee-b958-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 157, "chroma:document": "programmed command. The other uses MDI operations on the absolute position display screen, relative \r\nposition display screen, and overall position display screen (see Subsection, \u201cWorkpiece Coordinate \r\nSystem Preset\u201d).\r\nFormat\r\nM\r\nG92.1 IP 0 ;\r\nIP 0 : Specifies axis addresses subject to the workpiece coordinate system preset \r\noperation. Axes that are not specified are not subject to the preset operation.\r\nT\r\nG50.3 IP0 ; (G92.1 IP 0; for G code system B or C)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae7-a6ca-11ee-bdc8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 157, "chroma:document": "IP 0 : Specifies axis addresses subject to the workpiece coordinate system preset \r\noperation. Axes that are not specified are not subject to the preset operation."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae8-a6ca-11ee-968c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 158, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 129 -\r\nExplanation\r\nWhen manual reference position return operation is performed in the reset state, a workpiece coordinate \r\nsystem is shifted by the workpiece origin offset value from the machine coordinate system zero point. \r\nSuppose that the manual reference position return operation is performed when a workpiece coordinate \r\nsystem is selected with G54. In this case, a workpiece coordinate system is automatically set which has its"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0ae9-a6ca-11ee-b711-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 158, "chroma:document": "origin displaced from the machine zero point by the G54 workpiece origin offset value; the distance from \r\nthe origin of the workpiece coordinate system to the reference position represents the current position in \r\nthe workpiece coordinate system.\r\nReference position\r\nG54 workpiece coordinate system\r\nWorkpiece origin\r\nManual reference position return\r\nMachine zero point\r\nG54 workpiece\r\norigin offset value\r\nFig. 7.2.4 (a)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aea-a6ca-11ee-b2fa-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 158, "chroma:document": "Fig. 7.2.4 (a) \r\nIf an absolute position detector is provided, the workpiece coordinate system automatically set at \r\npower-up has its origin displaced from the machine zero point by the G54 workpiece origin offset value. \r\nThe machine position at the time of power-up is read from the absolute position detector and the current \r\nposition in the workpiece coordinate system is set by subtracting the G54 workpiece origin offset value"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aeb-a6ca-11ee-bd15-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 158, "chroma:document": "from this machine position. The workpiece coordinate system set by these operations is shifted from the \r\nmachine coordinate system using the commands and operations listed below.\r\n(a) Manual intervention performed when the manual absolute signal *ABSM is off\r\n(b) Move command executed in the machine lock state\r\n(c) Movement by handle interruption\r\n(d) Operation using the mirror image function \r\n(e) Shifting the workpiece coordinate system by setting the local coordinate system or workpiece"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aec-a6ca-11ee-a063-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 158, "chroma:document": "coordinate system\r\nIn the case of (a) above, the workpiece coordinate system is shifted by the amount of movement during \r\nmanual intervention.\r\nWZn\ufffeMachine zero point\r\nWorkpiece origin\r\noffset value\r\nWZo\r\nG54 workpiece\r\ncoordinate system before\r\nmanual intervention\r\nG54 workpiece coordinate\r\nsystem after manual\r\nintervention\r\nPo\r\nPn\r\nAmount of\r\nmovement during\r\nmanual intervention\r\nFig. 7.2.4 (b) \r\nIn the operation above, a workpiece coordinate system once shifted can be preset using G code (G92.1)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aed-a6ca-11ee-be95-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 158, "chroma:document": "specification or MDI operation (See the section of \u201cWorkpiece Coordinate System Preset\u201d in \u201cSETTING \r\nAND DISPLAYING DATA\u201d) to a workpiece coordinate system displaced by a workpiece origin offset \r\nvalue from the machine zero point."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aee-a6ca-11ee-8def-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 159, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 130 -\r\nBit 3 (PPD) of parameter No. 3104 specifies whether to preset relative coordinates as well as absolute \r\ncoordinates. Moreover, the difference below the least input increment between absolute coordinate point \r\nand relative coordinate point is corrected to the value of the preset(or origin) of relative coordinates when \r\nbit 4 (RPP) of parameter No.3129 is set to 1.\r\nLimitation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aef-a6ca-11ee-9a53-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 159, "chroma:document": "Limitation\r\n- Tool radius \u22c5 tool nose radius compensation, tool length compensation, tool \r\noffset\r\nWhen using the workpiece coordinate system preset function, cancel compensation modes: Tool radius \u22c5\r\ntool nose radius compensation, tool length compensation, and tool offset. If the function is executed \r\nwithout canceling these modes, compensation vectors are cancelled.\r\nM\r\n- Tool length compensation\r\nWhen using the workpiece coordinate system preset function, cancel tool length compensation. If the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af0-a6ca-11ee-85d5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 159, "chroma:document": "function is executed without canceling these modes, compensation vectors are cancelled.\r\n- Program restart\r\nThe workpiece coordinate system preset function is not executed during program restart.\r\nM\r\n- Prohibited modes\r\nDo not use the workpiece coordinate system preset function when the scaling, coordinate system rotation, \r\nprogrammable image, or figure copy mode is set.\r\n7.2.5 Addition of Workpiece Coordinate System Pair (G54.1 or G54)\r\nM"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af1-a6ca-11ee-bff6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 159, "chroma:document": "M\r\nBesides the six workpiece coordinate systems (standard workpiece coordinate systems) selectable with \r\nG54 to G59, 48 or 300 additional workpiece coordinate systems (additional workpiece coordinate \r\nsystems) can be used.\r\nFormat\r\n- Selecting the additional workpiece coordinate systems\r\nG54.1Pn ; or G54Pn ;\r\nPn : Codes specifying the additional workpiece coordinate systems\r\nn : 1 to 48 or 1 to 300\r\n- Setting the workpiece origin offset value in the additional workpiece \r\ncoordinate systems (G10)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af2-a6ca-11ee-b8f0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 159, "chroma:document": "coordinate systems (G10)\r\nG10L20Pn IP_;\r\nPn : Codes specifying the workpiece coordinate system for setting the workpiece origin \r\noffset value\r\nn : 1 to 48 or 1 to 300\r\nIP_ : Axis addresses and a value set as the workpiece origin offset"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af3-a6ca-11ee-aa0d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 160, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 131 -\r\nExplanation\r\n- Selecting the additional workpiece coordinate systems\r\nWhen a P code is specified together with G54.1 (G54), the corresponding coordinate system is selected \r\nfrom the additional workpiece coordinate systems (1 to 48 or 1 to 300).\r\nA workpiece coordinate system, once selected, is valid until another workpiece coordinate system is \r\nselected. Standard workpiece coordinate system 1 (selectable with G54) is selected at power-on."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af4-a6ca-11ee-b035-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 160, "chroma:document": "G54.1 P1........... Additional workpiece coordinate system 1\r\nG54.1 P2........... Additional workpiece coordinate system 2\r\n :\r\nG54.1 P48......... Additional workpiece coordinate system 48\r\n :\r\nG54.1 P300....... Additional workpiece coordinate system 300\r\nAs with the standard workpiece coordinate systems, the following operations can be performed for a \r\nworkpiece origin offset in an additional workpiece coordinate system:"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af5-a6ca-11ee-a8a4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 160, "chroma:document": "(1) The workpiece origin offset value setting screen can be used to display and set a workpiece origin \r\noffset value.\r\n(2) The G10 function enables a workpiece origin offset value to be set by programming (see Subsection, \r\n\u201cChanging Workpiece Coordinate System\u201d).\r\n(3) A custom macro allows a workpiece origin offset value to be handled as a system variable.\r\n(4) Workpiece origin offset data can be entered or output as external data."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af6-a6ca-11ee-92f0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 160, "chroma:document": "(5) The PMC window function enables workpiece origin offset data to be read as program command \r\nmodal data.\r\n- Setting the workpiece origin offset value in the additional coordinate systems \r\n(G10)\r\nWhen a workpiece origin offset value is specified using an absolute value, the specified value is the new \r\noffset value. When it is specified using an incremental value, the specified value is added to the current \r\noffset value to obtain a new offset value.\r\nLimitation\r\n- Specifying P codes"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af7-a6ca-11ee-998c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 160, "chroma:document": "- Specifying P codes\r\nA P code must be specified after G54.1 (G54). If G54.1 is not followed by a P code in the same block, \r\nadditional workpiece coordinate system 1 (G54.1P1) is assumed.\r\nIf a value not within the specifiable range is specified in a P code, an alarm PS0030, \u201cILLEGAL OFFSET \r\nNUMBER\u201d is issued.\r\nP codes other than workpiece offset numbers cannot be specified in a G54.1 (G54) block.\r\nExample 1) G54.1G04P1000;\r\nExample 2) G54.1M98P48;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af8-a6ca-11ee-a3a7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 161, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 132 -\r\n7.2.6 Automatic Coordinate System Setting\r\nWhen bit 0 (ZPR) of parameter No. 1201 for automatic coordinate system setting is 1, a coordinate \r\nsystem is automatically determined when manual reference position return is performed.\r\nOnce a, \u03b2, and \u03b3 are set with parameter No. 1250, a workpiece coordinate system is set upon reference \r\nposition return so that the base point on the tool holder or the tip of the basic tool is positioned at X = a,"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0af9-a6ca-11ee-9f05-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 161, "chroma:document": "Y = \u03b2, and Z = \u03b3.\r\nThis processing occurs as if the following are specified at the reference position:\r\nM\r\nG92XaY\u03b2Z\u03b3;\r\nT\r\nG50XaZ\u03b3;\r\nT\r\nWhen the setting of a workpiece coordinate system shift amount is other than 0, a workpiece coordinate \r\nsystem shifted by the amount is set.\r\n7.2.7 Workpiece Coordinate System Shift\r\nT\r\nExplanation\r\nWhen the coordinate system actually set by the G50 command or the automatic system setting deviates"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0afa-a6ca-11ee-b6d0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 161, "chroma:document": "from the programmed workpiece system, the set coordinate system can be shifted (see III Section 3.1, \r\n\u201cMANUAL REFERENCE POSITION RETURN\u201d).\r\nSet the desired shift amount in the workpiece coordinate system shift memory.\r\nFig. 7.2.7 (a) Workpiece coordinate system shift"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0afb-a6ca-11ee-b89c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 162, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 133 -\r\nFormat\r\n- Changing the workpiece coordinate system shift amount\r\nG10 P0 IP_;\r\nIP : Settings of an axis address and a workpiece coordinate system shift amount\r\nCAUTION\r\n1 A single block can contain a combination of X, Y, Z, C, U, V, W, and H (in G \r\ncode system A). In this case, if commands are specified for the same axis, \r\nwhichever appears later becomes valid.\r\n2 Be sure not to specify other G codes for the same block. When specified, only"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0afc-a6ca-11ee-807a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 162, "chroma:document": "modal information is updated.\r\n3 Be sure not to specify any auxiliary functions / spindle speed functions / tool \r\nfunctions or 2nd auxiliary functions for the same block. When specified, alarm \r\nPS1144 \"G10 FORMAT ERROR\" is issued.\r\n4 When it commanded with bit 6 (NWS) of parameter No. 1201 is set to 1, alarm \r\nPS0010, \"IMPROPER G-CODE\" is issued.\r\nLimitation\r\n- Shift amount and coordinate system setting command"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0afd-a6ca-11ee-8c62-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 162, "chroma:document": "Specifying a coordinate system setting command (G50 or G92) invalidates the shift amount that has \r\nalready been set.\r\nExample)\r\nWhen G50X100.0Z80.0; is specified, a coordinate system is set so that the current base position of \r\nthe tool is at X =100.0 and Z = 80.0, regardless of which value has been set for the workpiece \r\ncoordinate system shift amount.\r\n- Shift amount and coordinate system setting"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0afe-a6ca-11ee-8097-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 162, "chroma:document": "After a shift amount is set, when automatic coordinate system setting is performed upon manual reference \r\nposition return, the set coordinate system is immediately shifted by the set amount.\r\n- Diameter and radius values\r\nThe workpiece coordinate system shift amount depends on diameter programming or radius \r\nprogramming.\r\nExample)\r\nAlthough the base point should be positioned at X = \u03c6120.0 (diameter value) and Z = 70.0 from the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0aff-a6ca-11ee-a240-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 162, "chroma:document": "workpiece origin, the actual position is at X = \u03c6121.0 and Z = 69.0 from the origin. Set a shift \r\namount as shown below:\r\nX=1.0, Z=-1.0"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b00-a6ca-11ee-a8a0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 163, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 134 -\r\nFig. 7.2.7 (b)\r\n7.3 LOCAL COORDINATE SYSTEM\r\nWhen a program is created in a workpiece coordinate system, a child workpiece coordinate system can be \r\nset for easier programming. Such a child coordinate system is referred to as a local coordinate system.\r\nFormat\r\nG52 IP_; Setting the local coordinate system\r\n :\r\nG52 IP 0 ; Canceling of the local coordinate system\r\nIP_ : Origin of the local coordinate system\r\nExplanation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b01-a6ca-11ee-ab06-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 163, "chroma:document": "Explanation\r\nBy specifying G52 IP_;, a local coordinate system can be set in all the workpiece coordinate systems \r\n(G54 to G59). The origin of each local coordinate system is set at the position specified by IP_ in the \r\nworkpiece coordinate system.\r\nOnce a local coordinate system is established, the coordinates in the local coordinate system are used in \r\nan axis shift command. The local coordinate system can be changed by specifying the G52 command with"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b02-a6ca-11ee-808a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 163, "chroma:document": "the origin of a new local coordinate system in the workpiece coordinate system. \r\nTo cancel the local coordinate system or specify the coordinate value in the workpiece coordinate system, \r\nmatch the origin of the local coordinate system with that of the workpiece coordinate system."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b03-a6ca-11ee-8b90-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 164, "chroma:document": "B-64694EN/01 PROGRAMMING 7. COORDINATE SYSTEM\r\n- 135 -\r\n(Local coordinate system)\r\n(Local coordinate system)\r\n(Machine coordinate system)\r\nMachine coordinate system zero point\r\nReference position\r\n(G59: Workpiece coordinate\r\nsystem 6)\r\n(G54: Workpiece coordinate system 1)\r\nG55\r\nG56 G57\r\nG58\r\nIP_\r\nIP_\r\nFig. 7.3 Setting the local coordinate system\r\nCAUTION\r\n1 When bit 2 (ZCL) of parameter No.1201 is set to 1 and an axis returns to the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b04-a6ca-11ee-b2d2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 164, "chroma:document": "reference position by the manual reference position return function, the origin of \r\nthe local coordinate system of the axis matches that of the workpiece coordinate \r\nsystem. The same is true when the following command is issued:\r\n G52a0;\r\n a: Axis which returns to the reference position\r\n2 The local coordinate system setting does not change the workpiece and machine \r\ncoordinate systems.\r\n3 Whether the local coordinate system is canceled at reset depends on the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b05-a6ca-11ee-9892-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 164, "chroma:document": "parameter setting. The local coordinate system is canceled when either bit 6 \r\n(CLR) of parameter No.3402 or bit 3 (RLC) of parameter No.1202 is set to 1. In \r\n3-dimensional coordinate conversion mode, however, the local coordinate \r\nsystem is not canceled when bit 2 (D3R) of parameter No. 5400 is set to 1.\r\n4 When a workpiece coordinate system is set with the G92 (G50 for G code \r\nsystem A in the T series) command, the local coordinate system is canceled."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b06-a6ca-11ee-b1c0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 164, "chroma:document": "However, the local coordinate system of an axis for which no coordinate system \r\nis specified in a G92 (G50 for G code system A in the T series) block remains \r\nunchanged.\r\n5 G52 cancels the offset temporarily in tool radius \u22c5 tool nose radius compensation.\r\n6 Command a move command immediately after the G52 block in the absolute \r\nmode."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b07-a6ca-11ee-b836-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 165, "chroma:document": "7. COORDINATE SYSTEM PROGRAMMING B-64694EN/01\r\n- 136 -\r\n7.4 PLANE SELECTION\r\nSelect the planes for circular interpolation, cutter compensation, and drilling by G-code.\r\nThe following table lists G-codes and the planes selected by them.\r\nExplanation\r\nTable 7.4 Plane selected by G code\r\nG code Selected plane Xp Yp Zp\r\nG17 Xp Yp plane X-axis or an axis \r\nparallel to it\r\nY-axis or an axis \r\nparallel to it\r\nZ-axis or an axis \r\nparallel to it G18 Zp Xp plane\r\nG19 Yp Zp plane"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b08-a6ca-11ee-ab28-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 165, "chroma:document": "G19 Yp Zp plane\r\nXp, Yp, Zp are determined by the axis address appeared in the block in which G17, G18 or G19 is \r\ncommanded.\r\nWhen an axis address is omitted in G17, G18 or G19 block, it is assumed that the addresses of basic three\r\naxes are omitted.\r\nParameter No. 1022 is used to specify that an optional axis be parallel to the each axis of the X-, Y-, and \r\nZ-axes as the basic three axes.\r\nThe plane is unchanged in the block in which G17, G18 or G19 is not commanded."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b09-a6ca-11ee-90a4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 165, "chroma:document": "The movement instruction is irrelevant to the plane selection.\r\nM\r\nWhen the power is turned on or the CNC is reset, G17 (XY plane), G18 (ZX plane), or G19 (YZ plane) is \r\nselected by bits 1 (G18) and 2 (G19) of parameter No. 3402).\r\nT\r\nWhen the power is turned on, G18 (ZX plane) is selected.\r\nBy setting bit 0 (TPS) of parameter No. 3458 to 1, it is possible to select a modal plane by setting bits 1 \r\n(G18) and 2 (G19) of parameter No. 3402.\r\nNOTE\r\nU-, V-, and W-axes can be used with G-codes B and C."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b0a-a6ca-11ee-873a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 165, "chroma:document": "Example\r\nPlane selection when the X-axis is parallel with the U-axis. \r\nG17 X_Y_ ; XY plane, \r\nG17 U_Y_ ; UY plane\r\nG18 X_Z_ ; ZX plane\r\nX_Y_ ; Plane is unchanged (ZX plane)\r\nG17 ; XY plane\r\nG18 ; ZX plane\r\nG17 U_ ; UY plane\r\nG18Y_ ; ZX plane, Y axis moves regardless without any relation to the plane."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b0b-a6ca-11ee-be38-f47b0952d52c
encoding: FLOAT32
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{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 166, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 137 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\n8 COORDINATE VALUE AND DIMENSION\r\n8.1 ABSOLUTE AND INCREMENTAL PROGRAMMING\r\nThere are two ways to command travels of the tool; the absolute programming, and the incremental \r\nprogramming. In the absolute programming, coordinate value of the end position is programmed. The \r\nincremental programming is used to program the amount of a tool movement.\r\nM\r\nG90 and G91 are used to programming absolute or incremental programming, respectively."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b0c-a6ca-11ee-ae82-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 166, "chroma:document": "T\r\nAbsolute programming or incremental programming is used depending on the programming used. See \r\nfollowing tables.\r\nTable 8.1 (a)\r\nG code system A B or C\r\nCommand method Address word G90, G91\r\nFormat\r\nM\r\nAbsolute programming G90 IP_ ;\r\nIncremental programming G91 IP_ ;\r\nT\r\n- G code system A\r\nTable 8.1 (b)\r\nAbsolute programming Incremental programming\r\nX axis move command X U \r\nZ axis move command Z W \r\nY axis move command Y V \r\nC axis move command C H \r\n- G code system B or C"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b0d-a6ca-11ee-b470-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 166, "chroma:document": "- G code system B or C\r\nAbsolute programming G90 IP_ ;\r\nIncremental programming G91 IP_ ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b0e-a6ca-11ee-9169-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 167, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 138 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\nExample\r\nM\r\nAbsolute programming\r\nIncremental programming\r\nG90 X40.0 Y70.0 ;\r\nG91 X-60.0 Y40.0 ;\r\nY\r\nX\r\n70.0\r\n30.0\r\n40.0 100.0\r\nEnd point\r\nStart point\r\nFig. 8.1 (a) \r\nT\r\nTool movement from point P to point Q (diameter programming is used for the X-axis)\r\nTable 8.1 (c)\r\nG code system A G code system B or C\r\nAbsolute programming X400.0 Z50.0 ; G90 X400.0 Z50.0 ;\r\nIncremental programming U200.0 W-400.0 ; G91 X200.0 Z-400.0 ;\r\n\u03c6400 \u03c6200\r\n50"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b0f-a6ca-11ee-b939-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 167, "chroma:document": "\u03c6400 \u03c6200\r\n50\r\n450\r\nP\r\n(200, 450)\r\nQ\r\n(400, 50)\r\nZ\r\nX\r\nFig. 8.1 (b)\r\nNOTE\r\n1 Absolute programming and incremental programming can be used together in a \r\nblock.\r\nIn the above example, the following command can be specified : X400.0 \r\nW-400.0 ; (in the G code system A)\r\n2 When both X and U or Z and W are used together in a block, the one specified \r\nlater is effective.\r\n3 Incremental programming cannot be used when names of the axes are A and B \r\nduring G code system A is selected."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b10-a6ca-11ee-a8dc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 168, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 139 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\n8.2 INCH/METRIC CONVERSION (G20, G21)\r\nEither inch or metric input (least input increment) can be selected by G code.\r\nFormat\r\nG20 ; Inch input\r\nG21 ; Metric input\r\nThis G code must be specified in an independent block before setting the coordinate system at the \r\nbeginning of the program. After the G code for inch/metric conversion is specified, the unit of input data"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b11-a6ca-11ee-bf03-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 168, "chroma:document": "is switched to the least inch or metric input increment of increment system (see Section, \u201cINCREMENT \r\nSYSTEM\u201d). The unit of data input for degrees remains unchanged. The unit systems for the following \r\nvalues are changed after inch/metric conversion:\r\n- Feedrate commanded by F code\r\n- Positional command \r\n- Workpiece origin offset value \r\n- Tool compensation value\r\n- Unit of scale for manual pulse generator\r\n- Movement distance in incremental feed\r\n- Some parameters"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b12-a6ca-11ee-854e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 168, "chroma:document": "- Some parameters\r\nWhen the power is turned on, the G code is the same as that held before the power was turned off.\r\nWARNING\r\nG20 and G21 must not be switched during a program.\r\nNOTE\r\n1 When the least input increment and the least command increment systems are \r\ndifferent, the maximum error is half of the least command increment. This error \r\nis not accumulated.\r\n(Example)\r\n- Increment system : IS-B\r\n- Least input increment (for input) : In case of \"0.0001\" inch"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b13-a6ca-11ee-ba4c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 168, "chroma:document": "- Least command increment (for output) : \"0.00254\" -> \"0.003\" (Difference = \r\n0.00046 : About 1/2 of least command increment)\r\nInput \"0.0001 inch\" -> the moving increment of the machine \"0.00254 mm\".\r\nHowever, when the increment system is IS-B, the value of the movement of the\r\nmachine becomes \"0.003 mm\".\r\nTherefore, the error margin of \"0.00046 mm\" (About 1/2 of least command\r\nincrement) is generated as a difference.\r\n2 The inch and metric input can also be switched using settings (see Subsection,"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b14-a6ca-11ee-b18c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 168, "chroma:document": "\u201cDisplaying and Entering Setting Data\u201d).\r\n3 If a function selected using bit 2 (IRFx) of parameter No. 14000 or bit 0 (NIM) of \r\nparameter No. 11222 is not used, be sure to perform inch/metric conversion at \r\nthe machine coordinate system origin.\r\n4 G code of inch/metric conversion must be specified in a single block in principle.\r\nHowever, G17, G18, G19, G90, and G91 can be exceptionally specified in the \r\nsame block. If especially \u201cmove command\u201d, \u201ctool offset\u201d and \u201ccommand that"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b15-a6ca-11ee-b991-f47b0952d52c
encoding: FLOAT32
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{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 168, "chroma:document": "changes coordinate system\u201d are specified in the same block, the machine may \r\nbehave unexpectedly."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b16-a6ca-11ee-982a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 140 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\nPerforming inch/metric conversion in the reference position (parameter No. \r\n1240 is not 0)\r\nConventionally, inch/metric conversion must be performed at the machine coordinate system origin. \r\nHowever, setting bit 2 (IRFx) of parameter No. 14000 to 1 enables inch/metric conversion to be \r\nperformed in the reference position (parameter No. 1240)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b17-a6ca-11ee-aa58-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "If an attempt is made to perform inch/metric conversion when an axis with this function enabled is not in \r\nthe reference position, alarm PS5362, \u201cCONVERT INCH/MM AT REF-POS\u201d is issued to cancel the \r\nattempt.\r\nBefore trying to perform inch/metric conversion, be sure to set the axis of interest to the reference \r\nposition, using the G28 command, for example.\r\nIn addition, if the workpiece coordinate system has been shifted from the machine coordinate system,"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b18-a6ca-11ee-8e6d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "using the following commands or operations, bit 1 (CIM) of parameter No. 11222 can be used to select \r\nwhether to issue alarm PS1298, \u201cILLEGAL INCH/METRIC CONVERSION\u201d or to clear the offset.\r\n- Manual intervention performed with the manual absolute signal *ABSM being off\r\n- Move command issued with the machine locked\r\n- Move command issued using a handle interrupt\r\n- Mirror image-based operation\r\n- Workpiece coordinate system shift caused by local coordinate system setting (G52) or workpiece"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b19-a6ca-11ee-b40d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "coordinate system setting (G92)\r\nSwitching conditions\r\nPerforming inch/metric conversion in any position other than the reference position requires satisfying all \r\nof the following conditions. Failing to satisfy any of the conditions results in alarm PS1298, \u201cILLEGAL \r\nINCH/METRIC CONVERSION\u201d being issued. For electronic gear box 2 pair synchronization or \r\nelectronic gear box synchronization, alarm PS1595, \u201cILL-COMMAND IN EGB MODE\u201d is issued.\r\n- Positioning or linear interpolation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b1a-a6ca-11ee-99f3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "- Polar coordinate command cancel\r\n- Spindle Speed fluctuation detection off\r\n- Tool radius \u22c5 tool nose radius compensation cancel\r\n- Normal direction control cancel\r\n- Tool length offset cancel\r\n- Programmable mirror image cancel\r\n- Macro modal call A/B cancel\r\n- Coordinate system rotation or 3-dimensional coordinate system conversion mode off\r\n- Mirror image for double turret or balanced cutting mode cancel (T series only)\r\n- Canned cycle cancel\r\n- Electronic gear box 2 pair synchronization cancel"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b1b-a6ca-11ee-945a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "- Electronic gear box synchronization cancel\r\n- Constant surface speed control cancel\r\nM\r\n- Scaling cancel\r\nT\r\n- Polar coordinate interpolation cancel mode\r\n- Polygon turning cancel\r\nRestrictions\r\nWhen performing the following operations, make sure that the axis of interest is in the machine \r\ncoordinate system origin.\r\n- Inch/metric conversion based on bit 2 (INI) of setting parameter No. 0000\r\n- Inch/metric conversion based on programmable parameter input (G10)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b1c-a6ca-11ee-a5e7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 169, "chroma:document": "- Inch/metric conversion based on custom macro variable No. 3005"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b1d-a6ca-11ee-ae3f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 170, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 141 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\nPerforming inch/metric conversion in positions other than the reference \r\nposition\r\nSetting bit 0 (NIM) of parameter No. 11222 enables inch/metric conversion to be performed even in \r\npositions other than the reference position.\r\nIn addition, if the workpiece coordinate system has been shifted from the machine coordinate system, \r\nusing the following commands or operations, bit 1 (CIM) of parameter No. 11222 can be used to select"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b1e-a6ca-11ee-90c0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 170, "chroma:document": "whether to issue alarm PS1298 or to clear the offset.\r\n- Manual intervention performed with the manual absolute signal *ABSM being off\r\n- Move command issued with the machine locked\r\n- Move command issued using a handle interrupt\r\n- Mirror image-based operation\r\n- Workpiece coordinate system shift caused by local coordinate system setting (G52) or workpiece \r\ncoordinate system setting (G92)\r\nIf an axis is under any of the following controls, however, no automatic coordinate system conversion"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b1f-a6ca-11ee-a7d7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 170, "chroma:document": "based on this function can be carried out for the axis.\r\n- PMC axis control\r\n- Axis synchronous control (for slave axes when the master axis is a PMC axis)\r\n- Flexible synchronization control (for slave axes when the master axis is a PMC axis)\r\n- Spindle control with servo motor\r\n- Servo/spindle synchronous control\r\nSwitching conditions\r\nPerforming inch/metric conversion in any position other than the reference position requires satisfying all"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b20-a6ca-11ee-8be5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 170, "chroma:document": "of the following conditions. Failing to satisfy any of the conditions results in alarm PS1298 being issued. \r\nFor electronic gear box 2 pair synchronization or electronic gear box synchronization, alarm PS1595 is \r\nissued.\r\n- Positioning or linear interpolation\r\n- Polar coordinate command cancel\r\n- Spindle Speed fluctuation detection off\r\n- Tool radius \u22c5 tool nose radius compensation cancel\r\n- Normal direction control cancel\r\n- Tool length offset cancel\r\n- Programmable mirror image cancel"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b21-a6ca-11ee-97a2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 170, "chroma:document": "- Macro modal call A/B cancel\r\n- Coordinate system rotation or 3-dimensional coordinate system conversion mode off\r\n- Mirror image for double turret or balanced cutting mode cancel (T series only)\r\n- Canned cycle cancel\r\n- Electronic gear box 2 pair synchronization cancel\r\n- Electronic gear box synchronization cancel\r\n- Constant surface speed control cancel\r\nM\r\n- Scaling cancel\r\nT\r\n- Polar coordinate interpolation cancel mode\r\n- Polygon turning cancel\r\nRestrictions"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b22-a6ca-11ee-94e3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 170, "chroma:document": "Restrictions\r\nWhen performing the following operations, make sure that the axis of interest is in the machine \r\ncoordinate system origin.\r\n- Inch/metric conversion based on programmable parameter input (G10)\r\n- Inch/metric conversion based on custom macro variable No. 3005"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b23-a6ca-11ee-b628-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 171, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 142 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\nLimited to the reference position\r\nSetting bit 0 (NIM) of parameter No. 11222 and bit 3 (IMRx) of parameter No. 14000 enables inch/metric \r\nconversion to limit in the reference position (parameter No. 1240). This function is used when the \r\nparameter No. 1240\u22600.0 and the inch/metric conversion based on bit 2 (INI) of setting parameter No. \r\n0000 is limited to the reference position."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b24-a6ca-11ee-a4cb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 171, "chroma:document": "An alarm (PS5362) will be generated if inch/metric conversion is performed without the reference \r\nposition return. Also, inch/metric conversion based on programmable parameter input (G10) or custom \r\nmacro variable No. 3005 can not be commanded. An alarm (PS1298) will be generated. The operation of \r\nbit 1 (CIM) of parameter No. 11222 and the switching condition etc., it is the same as the specification \r\nthat bit 0 (NIM) of parameter No. 1122 is set to 1.\r\n8.3 DECIMAL POINT PROGRAMMING"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b25-a6ca-11ee-a721-f47b0952d52c
encoding: FLOAT32
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{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 171, "chroma:document": "8.3 DECIMAL POINT PROGRAMMING\r\nNumerical values can be entered with a decimal point. A decimal point can be used when entering a \r\ndistance, time, or speed. Decimal points can be specified with the following addresses:\r\nM\r\nX, Y, Z, U, V, W, A, B, C, I, J, K, Q, R, F\r\nT\r\nX, Y, Z, U, V, W, A, B, C, I, J, K, R, F,H(*1)\r\n(*1) only G code system A.\r\nExplanation\r\nThere are two types of decimal point notation: calculator-type notation and standard notation."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b26-a6ca-11ee-b8c7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 171, "chroma:document": "When calculator-type decimal notation is used, a value without decimal point is considered to be \r\nspecified in millimeters inch, or deg. When standard decimal notation is used, such a value is considered \r\nto be specified in least input increments. Select either calculator-type or standard decimal notation by \r\nusing the bit 0 (DPI) of parameter No.3401.Values can be specified both with and without decimal point \r\nin a single program.\r\nExample\r\nTable 8.3 (a)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b27-a6ca-11ee-901b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 171, "chroma:document": "Example\r\nTable 8.3 (a) \r\nProgram command Pocket calculator type decimal \r\npoint programming\r\nStandard type decimal point \r\nprogramming\r\nX1000\r\nCommand value without decimal point\r\n1000mm\r\nUnit :mm\r\n1mm\r\nUnit : Least input increment (0.001mm)\r\nX1000.0\r\nCommand value with decimal point\r\n1000mm\r\nUnit :mm\r\n1000mm\r\nUnit :mm\r\nCAUTION\r\nWhen specifying a dimension word for a command G code in a block, be sure to \r\nplace the dimension word after the command G code."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b28-a6ca-11ee-adbc-f47b0952d52c
encoding: FLOAT32
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{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 172, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 143 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\nNOTE\r\n1 A specified value less than the minimum unit is treated as described below.\r\nExample 1)\r\nWhen a value is specified directly at an address (in the case of 1/1000mm \r\nIS-B)\r\nX1.2345 ; Treated as X1.235\r\nX-1.2345 ; Treated as X-1.234\r\nExample 2)\r\nWhen a value is assigned to a macro variable (in the case of 1/1000mm IS-B)\r\n#100=1.2345; \r\nX#100 ; Treated as X1.235\r\n#100=-1.2345; \r\nX#100 ; Treated as X-1.234"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b29-a6ca-11ee-ab82-f47b0952d52c
encoding: FLOAT32
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{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 172, "chroma:document": "X#100 ; Treated as X-1.234\r\n2 When more than the digits indicated in table below are specified, an alarm \r\noccurs. \r\nTable8.3 (b) Maximum command digit number\r\nincrement system\r\nWhen address I, J, K or R is \r\nused to specify the radius for \r\ncircular interpolation\r\nThe address other than the \r\nradius of circular interpolation\r\nIS-A 11 digits 8 digits\r\nThe increment systems\r\nother than IS-A 12 digits 9 digits\r\nIf a value is entered with a decimal point, the number of digits is also checked"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b2a-a6ca-11ee-9d70-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 172, "chroma:document": "after the value is converted to an integer according to the least input increment.\r\nExamples:\r\nX1.23456789;\r\nWhen increment system is IS-A, alarm PS0003, \u201cTOO MANY DIGIT\u201d \r\noccurs because more than eight digits are specified.\r\nX1234567.8;\r\nIf the least input increment is 0.01 mm, the value is converted to integer \r\n123456780. When increment system is IS-A, because the integer has more \r\nthan eight digits, an alarm occurs."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b2b-a6ca-11ee-a9e8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 173, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 144 -\r\n8.COORDINATE VALUE AND \r\nDIMENSION\r\n8.4 DIAMETER AND RADIUS PROGRAMMING\r\nSince the workpiece cross section is usually circular in CNC lathe control programming, its dimensions \r\ncan be specified in two ways :\r\nDiameter and Radius\r\nZ axis\r\nA\r\nB\r\nD1\r\nX axis\r\nD2\r\nR1\r\nR2\r\nD1, D2 : Diameter programming\r\nR1, R2 : Radius programming\r\nFig. 8.4\r\nWhen the diameter is specified, it is called diameter programming and when the radius is specified, it is \r\ncalled radius programming."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b2c-a6ca-11ee-a763-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 173, "chroma:document": "called radius programming.\r\nExplanation\r\n- Notes on diameter programming/radius programming for each command\r\nRadius programming or diameter programming can be specified by bit 3 (DIA) of parameter No.1006. \r\nWhen using diameter programming, note the conditions listed in the Table 8.4 (a).\r\nTable 8.4 (a) Notes on specifying diameter value\r\nItem Notes\r\nX axis command Specified with a diameter value\r\nIncremental command Specified with a diameter value"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b2d-a6ca-11ee-bfa2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 173, "chroma:document": "In the above figure, specifies D2 minus D1 for tool path B to A.\r\nCoordinate system setting (G50) Specifies a coordinate value with a diameter value\r\nComponent of tool offset value Bit 1 of parameter No.5004 determines either diameter or \r\nradius value\r\nParameters in canned cycle, such as cutting \r\ndepth along X axis. (R) Specifies a radius value\r\nRadius designation in circular interpolation (R, I, \r\nK, and etc.) Specifies a radius value"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b2e-a6ca-11ee-b4f7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 173, "chroma:document": "Feedrate along axis Specifies change of radius/rev. or change of radius/min.\r\nDisplay of axis position Displayed as diameter value"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b2f-a6ca-11ee-b47a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 174, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 145 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n9 SPINDLE SPEED FUNCTION (S FUNCTION)\r\n9.1 SPECIFYING THE SPINDLE SPEED WITH A CODE\r\nWhen a value is specified after address S, the code signal and strobe signal are sent to the machine to \r\ncontrol the spindle rotation speed.\r\nA block can contain only one S code. Refer to the appropriate manual provided by the machine tool \r\nbuilder for details such as the number of digits in an S code or the execution order when a move"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b30-a6ca-11ee-b7e0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 174, "chroma:document": "command and an S code command are in the same block.\r\n9.2 SPECIFYING THE SPINDLE SPEED VALUE DIRECTLY \r\n(S5-DIGIT COMMAND)\r\nThe spindle speed can be specified directly by address S followed by a max. five-digit value (min-1\r\n). The \r\nunit for specifying the spindle speed may vary depending on the machine tool builder. Refer to the \r\nappropriate manual provided by the machine tool builder for details.\r\n9.3 CONSTANT SURFACE SPEED CONTROL (G96, G97)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b31-a6ca-11ee-b685-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 174, "chroma:document": "Specify the surface speed (relative speed between the tool and workpiece) following S. The spindle is \r\nrotated so that the surface speed is constant regardless of the position of the tool.\r\nFormat\r\n- Constant surface speed control command\r\nG96Sxxxxx ;\r\n \u2191 Surface speed (m/min or feet/min)\r\nThis surface speed unit may change according to machine tool builder's specification.\r\n- Constant surface speed control cancel command\r\nG97Sxxxxx ;\r\n \u2191 Spindle speed (min-1\r\n)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b32-a6ca-11ee-a685-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 174, "chroma:document": "\u2191 Spindle speed (min-1\r\n)\r\nThis surface speed unit may change according to machine tool builder's specification.\r\n- Constant surface speed controlled axis command\r\nG96P\u03b1 ;\r\nP0 : Axis set in the parameter No. 3770\r\nP1 : 1st axis, P2 : 2nd axis, P3 : 3rd axis, P4 : 4th axis\r\nP5 : 5th axis, P6 : 6th axis, P7 : 7th axis, P8 : 8th axis\r\nNOTE\r\nIf multi-spindle control (spindle selecting based on address P or spindle name \r\nexpansion) is enabled, axis specification based on address P is disabled. Use"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b33-a6ca-11ee-a183-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 174, "chroma:document": "parameter No. 3770 for axis specification."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b34-a6ca-11ee-8ec7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 175, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 146 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Clamp of maximum spindle speed\r\nG92 S_ ;\r\nThe maximum spindle speed (min-1\r\n) follows S.\r\nT\r\nG50 S_ ; \r\nThe maximum spindle speed (min-1\r\n) follows S.\r\nNOTE\r\nG50 can be used with G code system A.\r\nExplanation\r\n- Constant surface speed control command (G96)\r\nG96 (constant surface speed control command) is a modal G code. After a G96 command is specified, the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b35-a6ca-11ee-b521-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 175, "chroma:document": "program enters the constant surface speed control mode (G96 mode) and specified S values are assumed \r\nas a surface speed. A G96 command must specify the axis along which constant surface speed control is \r\napplied. A G97 command cancels the G96 mode. When constant surface speed control is applied, a \r\nspindle speed higher than the value specified in G92S_; or G50S_; (maximum spindle speed) is clamped \r\nat the maximum spindle speed. When the power is turned on, the maximum spindle speed is not yet set"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b36-a6ca-11ee-b781-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 175, "chroma:document": "and the speed is not clamped. S (surface speed) commands in the G96 mode are assumed as S = 0 (the \r\nsurface speed is 0) until M03 (rotating the spindle in the positive direction) or M04 (rotating the spindle \r\nin the negative direction) appears in the program.\r\nFig. 9.3 (a) Relation between workpiece radius, spindle speed and surface speed"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b37-a6ca-11ee-8f0f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 176, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 147 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Setting the workpiece coordinate system for constant surface speed control\r\nTo execute the constant surface speed control, it is necessary to set the workpiece coordinate system , and \r\nso the coordinate value at the center of the rotary axis, for example, Z axis, (axis to which the constant \r\nsurface speed control applies) becomes zero.\r\nX\r\nZ\r\n0"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b38-a6ca-11ee-afd9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 176, "chroma:document": "X\r\nZ\r\n0\r\nFig. 9.3 (b) Example of the workpiece coordinate system for constant surface speed control\r\n- Surface speed specified in the G96 mode\r\nG96 mode G97 mode\r\nSpecify the surface speed in m/min\r\n(or feet/min)\r\nG97 command\r\nStore the surface speed in m/min\r\n(or feet/min)\r\nCommand for\r\nthe spindle\r\nspeed\r\nSpecified\r\nThe specified\r\nspindle speed\r\n(min-1) is used\r\nNot specified\r\nThe surface speed (m/min or\r\nfeet/min) is converted to the\r\nspindle speed (min-1)\r\nCommands other than G96\r\nG96 command"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b39-a6ca-11ee-be3e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 176, "chroma:document": "G96 command\r\nThe specified\r\nsurface\r\nspeed is used\r\nCommand\r\nfor the surface\r\nspeed\r\nThe stored surface speed (m/min or\r\nfeet/min) is used. If no surface\r\nis stored, 0 is assumed.\r\nSpecified\r\nNot specified"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b3a-a6ca-11ee-b48f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 148 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Maximum spindle speed clamp\r\nIf the spindle rotating at the maximum speed specified with the relevant parameter may cause a problem \r\nin the constant surface speed control mode, execute maximum spindle speed clamp (M series: G92S_;, T \r\nseries: G50S_;) before starting constant surface speed control so that the spindle speed does not exceed \r\nthe specified speed."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b3b-a6ca-11ee-a92b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "the specified speed.\r\nWhen maximum spindle speed clamp has not been executed after power-on, constant surface speed \r\ncontrol may be specified due to a program error or operator error including the use of an improper \r\nprocedure for executing a machining program. To avoid this problem, bit 4 (CSA) of parameter No. 3712 \r\ncan be set to 1 to issue alarm PS5557, \u201cNO MAX SP SPEED CLAMP COMMAND\u201d in the above case to \r\nprevent the spindle from rotating at an unexpected speed."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b3c-a6ca-11ee-8de0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "When bit 0 (CLM) of parameter No.3785 is set to 0, and spindle selection by extended spindle name is \r\nenabled, if extended spindle name is commanded at clamp command of maximum spindle speed G92 \r\n(G50 in G code system A of T series), alarm PS0539 \u201cMAX SP SPEED CLAMP COMMAND ERROR\u201d\r\nis issued. \u201cS\u201d has to be commanded at clamp command of maximum spindle speed.\r\nExample\r\nSuppose that extended spindle name is set as follows.\r\nTable 9.3 (a) Setting of extended spindle name"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b3d-a6ca-11ee-8ebb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "Spindle number Extended spindle name\r\nFirst spindle S\r\nSecond spindle SB\r\nIf \u201cG92 SB30 ;\u201d is commanded, alarm PS0539 \u201cMAX SP SPEED CLAMP COMMAND ERROR\u201d is \r\nissued. Clamp of maximum spindle speed has to be command \u201cG92 S30 ;\u201d. If \u201cS\u201d is set as extended \r\nspindle name, alarm PS0539 is not issued.\r\n- Selection of axis as the calculation reference in constant surface speed \r\ncontrol\r\nWhen bit 0 (CLM) of parameter No.3785 is set to 0, and spindle selection by address P or extended"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b3e-a6ca-11ee-b663-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "spindle name of multi-spindle control is enabled, selection of axis as the calculation reference in constant \r\nsurface speed control \u201cG96 P_ ;\u201d is commanded, alarm PS0190 \u201cILLEGAL AXIS SELECTED (G96)\u201d is \r\nissued. Please command programmable parameter input G10 in changing axis as the calculation reference \r\nin constant surface speed control.\r\nExample\r\nSuppose that spindle selection by address P is enabled.\r\n- If \u201cG96 P_ ;\u201d is commanded, alarm PS0190 is issued."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b3f-a6ca-11ee-9600-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "- If \u201cG96 S_ P_ ;\u201d is commanded, spindle selected by address P is controlled by constant surface \r\nspeed control.\r\nExample\r\nSuppose that extended spindle name is set as Table 9.3 (a).\r\n- If \u201cG96 P_ ;\u201d is commanded, alarm PS0190 is issued.\r\n- If \u201cG96 S_ P_ ;\u201d , or \u201cG96 SB_ P_ \u201d is commanded, alarm PS0190 is issued.\r\nWhen extended spindle name is enabled, address P cannot be commanded at G96 block.\r\n- G96 command without surface speed"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b40-a6ca-11ee-98cc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 177, "chroma:document": "When bit 1 (G96) of parameter No.3785 is set to 1, and spindle selection by address P or extended spindle \r\nname is enabled, if G96 command without surface speed is commanded, alarm PS5355 \u201cS CODE IS NOT \r\nCOMMANDED AT G96\u201d is issued."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b41-a6ca-11ee-97fb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 178, "chroma:document": "B-64694EN/01 PROGRAMMING \r\n- 149 - \r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION) \r\nNOTE \r\n When spindle selection by address P or extended spindle name is enabled, if \r\nG96 is commanded without surface speed, surface speed which is commanded \r\nat previous G96 command is applied. Axis as the calculation reference in \r\nconstant surface speed control which is commanded previously regardless of \r\nG96/G97 mode is applied. In order to prevent rotation of unexpected spindle by"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b42-a6ca-11ee-b828-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 178, "chroma:document": "G96 command without surface speed, please command surface speed at G96 \r\ncommand. \r\n- Spindle speed calculation during the 3-dimensional coordinate system \r\nconversion / the tilted working plane indexing \r\nIn the constant surface speed control in the 3-dimensional coordinate system conversion / the tilted \r\nworking plane indexing mode, the coordinate system which is the standard of speed calculation can be \r\nchanged by the parameter 3CS(No.11221#6)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b43-a6ca-11ee-aa4a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 178, "chroma:document": "Table 9.3 (b) The standard coordinate system of spindle speed calculation \r\nParameter 3CS Coordinate system of standard \r\n0 Workpiece coordinate \r\n1 Program coordinate (3-dimensional coordinate system conversion) \r\n/ Feature coordinate (Tilted working plane indexing) \r\nr=7.0711(mm) \r\nWorkpiece coordinate (G54) \r\n(parameter 3CS=0) \r\nTool \r\nProgram coordinate (G68) / \r\nFeature coordinate (G68.2) \r\n(parameter 3CS=1) \r\nr'=10.0(mm) \r\nX \r\nZ X' \r\n45\u00b0\r\nZ' \r\nSpindle speed N"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b44-a6ca-11ee-b925-f47b0952d52c
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{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 178, "chroma:document": "45\u00b0\r\nZ' \r\nSpindle speed N \r\nFig.9.3 (c) Spindle speed calculation during the 3-dimensional coordinate system conversion \r\n/ the tilted working plane indexing \r\nExample) \r\nWhen the followings are set by the programming. \r\n- the surface speed S=10(m/min) \r\n- the axis as the calculation reference is X \r\nN1 G68 X0 Y0 Z0 I0 J1 K0 R-45.0 \r\nN2 G01 G90 X0 Y0 Z0 F100.0 \r\nN3 G96 S10 P1 \r\nN4 X10.0 Y0 Z0"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b45-a6ca-11ee-9226-f47b0952d52c
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metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 179, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 150 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\nN5 G97\r\nN6 G69\r\nTable 9.3 (c) The spindle speed in N4 (calculation by relation of N=S/2\u03c0r)\r\nParameter 3CS Radius value r (mm) In the axis (X)\r\nas the calculation reference Spindle speed N(mm-1\r\n)\r\n0 7.0711 225\r\n1 10.0 159\r\nLimitation\r\n- Constant surface speed control for threading\r\nThe constant surface speed control is also effective during threading. Accordingly, it is recommended that"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b46-a6ca-11ee-95ab-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 179, "chroma:document": "the constant surface speed control be invalidated with G97 command before starting the scroll threading \r\nand taper threading, because the response problem in the servo system may not be considered when the \r\nspindle speed changes.\r\n- Constant surface speed control for rapid traverse (G00)\r\nIn a rapid traverse block specified by G00, the constant surface speed control is not made by calculating \r\nthe surface speed to a transient change of the tool position, but is made by calculating the surface speed"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b47-a6ca-11ee-83e4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 179, "chroma:document": "based on the position at the end point of the rapid traverse block, on the condition that cutting is not \r\nexecuted at rapid traverse.\r\n- Rigid tapping\r\nIf rigid tapping is commanded during constant surface speed control, alarm (PS0200), \u201dILLEGAL S \r\nCODE COMMAND\u201d is issued. Command rigid tapping after canceling constant surface speed control.\r\nNotes\r\n- Clamp at maximum spindle speed in the tool length compensation mode"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b48-a6ca-11ee-bd2b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 179, "chroma:document": "Clamp at maximum spindle speed cannot be used together with a block where tool length compensation \r\nvectors vary. For example, it cannot be used together with the following blocks.\r\nExample\r\n1 Block in which G43/G44 is issued\r\n2 Block which is in the G43 or G44 mode and in which an H code is issued\r\n3 Block which is in the G43 or G44 mode and in which G49 is issued\r\n4 Block in which, in the G43 or G44 mode, compensation vectors are canceled \r\nusing a G code such as G28 or G53 and then resumed again"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b49-a6ca-11ee-b0bb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 179, "chroma:document": "The current tool length offset can not be changed by following method:\r\nStop operation just before this G code, and change the correct offset by MDI or other method."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b4a-a6ca-11ee-b68d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 180, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 151 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\nExample\r\nT\r\n300 400 500 600 700 800 900 1000 1100\r\n1200\r\n130014001500\r\n1050\r\n1475\r\n200\r\n375\r\n500\r\n300\r\n400\r\n700\r\nX\r\nZ\r\n1\r\n2\r\n3\r\n4\r\nN16\r\nN16\r\nN15\r\nN15\r\nN14\r\nN14 N11\r\nN11\r\n100\r\n675\r\n600\r\nProgrammed path\r\nTool path after offset\r\nRadius value\r\nf600 f400\r\nN8 G00 X1000.0Z1400.0 ;\r\nN9 T33;\r\nN11 X400.0Z1050.0;\r\nN12 G50S3000 ; (Designation of max. spindle speed)\r\nN13 G96S200 ; (Surface speed 200 m/min)\r\nN14 G01 Z 700.0F1000 ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b4b-a6ca-11ee-8ef2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 180, "chroma:document": "N14 G01 Z 700.0F1000 ;\r\nN15 X600.0Z 400.0;\r\nN16 Z_ ; \r\nThe CNC calculates the spindle speed which is proportional to the specified surface speed at the position \r\nof the programmed coordinate value on the X axis. This is not the value calculated according to the X \r\naxis coordinate after offset when offset is valid. At the end point N15 in the example above, the speed at \r\n600 dia. (Which is not the turret center but the tool nose) is 200 m/min. If X axis coordinate value is"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b4c-a6ca-11ee-84e8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 180, "chroma:document": "negative, the CNC uses the absolute value."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b4d-a6ca-11ee-a8f8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 152 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n9.4 SPINDLE POSITIONING FUNCTION\r\nOverview\r\nIn turning, the spindle connected to the spindle motor is rotated at a certain speed to rotate the workpiece \r\nmounted on the spindle. This spindle control status is referred to as spindle rotation mode.\r\nThe spindle positioning function turns the spindle connected to the spindle motor by a certain angle to"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b4e-a6ca-11ee-9977-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "position the workpiece mounted on the spindle at a certain angle. This spindle control status is referred to \r\nas spindle positioning mode.\r\nThe spindle positioning function involves the following three operations:\r\n1. Canceling the spindle rotation mode and entering the spindle positioning mode\r\nPlace the spindle in the spindle positioning mode and establish a reference position by specifying a \r\ngiven M code (set with a parameter). (Spindle orientation)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b4f-a6ca-11ee-a0ff-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "2. Positioning the spindle in the spindle positioning mode\r\nThe spindle is positioned in either of the two methods:\r\n1) Positioning with an arbitrary angle by an axis address\r\n2) Positioning with a semi-fixed angle by a given M code (set with a parameter)\r\n3. Canceling the spindle positioning mode, and entering the spindle rotation mode\r\nPlace the spindle in the spindle rotation mode by specifying a given M code (set with a parameter)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b50-a6ca-11ee-b29f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "The least command increment, least input increment, and maximum value for the spindle positioning axis \r\nare as follows:\r\n- Least command increment\r\n- Least input increment\r\n0.001 deg (IS-B)\r\n- Maximum value\r\n\u00b1999999.999 deg\r\n9.4.1 Spindle Orientation\r\nWhen spindle positioning is first performed after the spindle motor is used for normal spindle operation, \r\nor when spindle positioning is interrupted, the spindle orientation is required."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b51-a6ca-11ee-90ff-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "Orientation permits the spindle to stop at a predetermined position.\r\nOrientation is directed by the M code set in parameter No. 4960. The direction of orientation can be set \r\nwith a parameter.\r\nFor the serial spindle, it is set in bit 4 (RETSV) of parameter No. 4000. With the grid shift function, the \r\norientation position can be shifted in a range of 0 to 360 deg with parameter No. 4073 for a serial spindle.\r\n- Feedrate during spindle orientation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b52-a6ca-11ee-8f26-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "An orientation feedrate for a serial spindle is determined by a spindle parameter setting.\r\nIn orientation, the serial spindle stops at the orientation position after several rotations of the spindle \r\nmotor.\r\n- Omission of orientation\r\nBy using bit 2 (ISZ) of parameter No. 4950, orientation upon switching to spindle positioning mode can \r\nbe omitted if it is unnecessary (for example, when no start position is specified and incremental"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b53-a6ca-11ee-b8e5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 181, "chroma:document": "positioning from the current position is only required). More specifically, when an M code for switching \r\nto spindle positioning mode is specified, the spindle control mode is simply switched to spindle \r\npositioning mode and then the processing is completed without orientation.\r\n360\r\n4096 = 0.088 deg (when the gear ratio of the spindle to the position coder \u2022\r\n\u2022"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b54-a6ca-11ee-854d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 182, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 153 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Program reference position\r\nThe position at which orientation is completed is assumed to be a program reference position. However, \r\nthe program reference position can be changed through coordinate system setting (G92 or G50) or \r\nautomatic coordinate system setting (bit 0 (ZPR) of parameter No. 1201).\r\nWhen a setting is made to omit orientation, a program reference position is not established, and operation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b55-a6ca-11ee-b8d7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 182, "chroma:document": "by an absolute command is unpredictable during spindle positioning with an axis address.\r\n9.4.2 Spindle Positioning\r\nThe spindle can be positioned with a semi-fixed angle or arbitrary angle.\r\n- Positioning with a semi-fixed angle\r\nUse an M code to specify a positioning angle. The specifiable M code value may be one of the six values \r\nfrom M\u03b1 to M (\u03b1+5). Value \u03b1 must be set in parameter No. 4962 beforehand. The positioning angles"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b56-a6ca-11ee-9a0f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 182, "chroma:document": "corresponding to M\u03b1 to M (\u03b1+5) are listed below. Value \u03b2 must be set in parameter No. 4963 \r\nbeforehand.\r\nM-code\r\n(Ex.) \u03b2 = \u03b1 + 5 Positioning angle (Ex.) \u03b2 = 30\u00b0\r\nM\u03b1 \u03b2 30\u00b0\r\nM (\u03b1 + 1) 2\u03b2 60\u00b0\r\nM (\u03b1 + 2) 3\u03b2 90\u00b0\r\nM (\u03b1 + 3) 4\u03b2 120\u00b0\r\nM (\u03b1 + 4) 5\u03b2 150\u00b0\r\nM (\u03b1 + 5) 6\u03b2 180\u00b0\r\nWhen the number of M codes to be used, value \u03b3, is specified in parameter No. 4964, a specifiable M \r\ncode value may be in a range of values from M\u03b1 to M (\u03b1 + (\u03b3 - 1)), up to 255 values from M\u03b1 to M (\u03b1 + \r\n(255 - 1)).\r\nM code"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b57-a6ca-11ee-b4ef-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 182, "chroma:document": "(255 - 1)).\r\nM code\r\n(Ex.) \u03b3 = 11 Positioning angle (Ex.) \u03b2 = 30\u00b0\r\nM\u03b1 \u03b2 30\u00b0\r\nM (\u03b1 + 1) 2\u03b2 60\u00b0\r\nM (\u03b1 + 2) 3\u03b2 90\u00b0\r\nM (\u03b1 + 3) 4\u03b2 120\u00b0\r\n... ... ...\r\nM (\u03b1 + 11 - 1) 11\u03b2 330\u00b0\r\nThe direction of rotation can be specified in bit 1 (IDM) of parameter No.4950.\r\n- Positioning with an arbitrary angle\r\nSpecify the position with an arbitrary angle using the axis address followed by a signed numeric value or \r\nnumeric values. The axis address must be specified in the G00 mode."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b58-a6ca-11ee-99ce-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 182, "chroma:document": "(The explanation below is given assuming that a C axis address is set.)\r\n(Example) C-45000\r\nC180.000\r\nA numeric with the decimal point can be entered. The value must be specified in degrees.\r\n(Example) C36.0=C36 deg"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b59-a6ca-11ee-9f85-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 183, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 154 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Absolute commands and incremental commands\r\nIncremental commands are always used for positioning with a semi-fixed angle (using M codes).\r\nThe direction of rotation can be specified with bit 1 (IDM) of parameter No. 4950.\r\nAbsolute and incremental commands can be used for positioning with an arbitrary angle.\r\nWith absolute commands for positioning with an arbitrary angle, when the rotation axis rollover function"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b5a-a6ca-11ee-b2a0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 183, "chroma:document": "is used (bit 0 (ROA) of parameter No. 1008 is 1), shortcut control is also enabled (bit 1 (RAB) of \r\nparameter No. 1008 is 0).\r\nProgram reference position\r\nA\r\nB\r\n180\u00b0\r\n90\u00b0\r\nCommand format\r\nG-code system A in lathe system G-code system B or C in lathe system, \r\nand machining center system\r\nAddress \r\nused\r\nCommand A-B in \r\nthe above figure\r\nAddress used and G \r\ncode\r\nCommand A-B in \r\nthe above figure\r\nAbsolute command\r\nSpecify the end point with a \r\ndistance from the program \r\nreference position."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b5b-a6ca-11ee-b05f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 183, "chroma:document": "reference position.\r\nC C180.0 ; G90, C G90 C180 .;\r\nIncremental \r\ncommand\r\nSpecify a distance from \r\nthe start point to the end \r\npoint.\r\nH H90.0 ; G91, C G91 C90 .;\r\n- Feedrate during positioning\r\nThe feedrate during positioning equals the rapid traverse speed specified in parameter No. 1420.\r\nFor the specified speed, an override of 100%, 50%, 25%, and F0 (parameter No. 1421) can be applied.\r\n9.4.3 Canceling Spindle Positioning"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b5c-a6ca-11ee-aa9b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 183, "chroma:document": "When modes are to be switched from spindle positioning to normal spindle rotation, the M code set in \r\nparameter No. 4961 must be specified.\r\nAlso, the spindle positioning mode is canceled and the spindle rotation mode is set in the following cases:\r\n<1> A reset operation (including an emergency stop) occurs when a servo alarm is issued.\r\n<2> A reset operation (including an emergency stop) occurs when a spindle alarm is issued."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b5d-a6ca-11ee-ac59-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 183, "chroma:document": "<3> An orientation operation in progress is stopped due to a reset or alarm, or for some other reason.\r\n<4> A reset operation (including an emergency stop) occurs when bit 0 (IOR) of parameter No. 4950 is \r\n1.\r\nCAUTION\r\n1 During execution of spindle positioning sequences (canceling the spindle rotation \r\nmode and entering the spindle positioning mode, positioning the spindle in the \r\nspindle positioning mode, and canceling the spindle positioning mode and"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b5e-a6ca-11ee-a902-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 183, "chroma:document": "entering the spindle rotation mode), the automatic operation stop signal *SP is \r\ninvalid. This means that automatic operation does not stop until all the \r\nsequences are completed, even when the *SP signal becomes \u201c0\u201d."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b5f-a6ca-11ee-bf54-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 155 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\nCAUTION\r\n2 Dry run and machine lock cannot be performed during spindle positioning.\r\n3 Auxiliary function lock is disabled for M codes for the spindle positioning function.\r\n4 The serial spindle Cs-axis contour control function and the spindle positioning \r\nfunction cannot be used at a time. If both functions are specified, the spindle \r\npositioning function has priority."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b60-a6ca-11ee-959c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "5 The spindle positioning axis is handled as a controlled axis. Therefore, controlled \r\naxis-related signals (such as the overtravel signal) must be set.\r\n6 When using the rigid tapping function and the spindle positioning function\r\nconcurrently, do not specify rigid tapping in spindle positioning mode or spindle \r\npositioning in rigid tapping mode.\r\nNOTE\r\n1 M code commands for positioning of a spindle must be specified in a single"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b61-a6ca-11ee-81d9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "block. Other commands must not be contained in the same block. (Also, M code \r\ncommands for positioning of another spindle must not be contained in the same \r\nblock.)\r\nEven when the single-block, multiple-M code command function is also used, \r\nrelated M codes must be specified in a single block.\r\n2 Even when the single-block, multiple-M code command function is also used, \r\nrelated M codes must be specified in a single block."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b62-a6ca-11ee-83f0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "3 Axis address commands for positioning of a spindle must be specified in a single \r\nblock. Other commands must not be contained in the same block. However, the \r\nfollowing commands can be contained in the same block where axis address \r\ncommands are specified:\r\nG00, G90, G91, G92 (G-code systems B and C in the T series, M series)\r\nG00, G50 (G-code system A in the T series)\r\n4 M code commands for spindle positioning specify M codes that are not buffered."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b63-a6ca-11ee-bc66-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "5 Spindle positioning cannot be performed by manual operation (in jog feed, \r\nmanual handle feed, or other mode).\r\n6 Spindle positioning cannot be performed by PMC axis control.\r\n7 For spindle positioning, program restart and block restart operations cannot be \r\nperformed. Use the MDI for these operations.\r\n8 The stored stroke limit check is disabled for the spindle positioning axis.\r\n9 The axis removal function is disabled for the spindle positioning axis."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b64-a6ca-11ee-ab90-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "10 The pitch error compensation function is disabled for the spindle positioning axis.\r\n11 When a setting is made to omit spindle orientation, the reference position return \r\ncompletion signal does not become \u201c1\u201d.\r\n12 In spindle orientation, all-axis interlock and axis-specific interlock are checked \r\nonly when a block is started. A signal is ignored if input during the execution of \r\nthe block.\r\n13 A difference between a specified travel distance and an actual travel distance is"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b65-a6ca-11ee-afde-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 184, "chroma:document": "maintained until spindle positioning mode is canceled."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b66-a6ca-11ee-a86a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 185, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 156 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n9.5 SPINDLE SPEED FLUCTUATION DETECTION\r\nOverview\r\nWith this function, an overheat alarm OH0704, \u201cOVERHEAT\u201d is raised and the spindle speed fluctuation \r\ndetection alarm signal SPAL is issued when the spindle speed deviates from the specified speed due to \r\nmachine conditions.\r\nThis function is useful, for example, for preventing the seizure of the guide bushing."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b67-a6ca-11ee-99e7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 185, "chroma:document": "G26 enables spindle speed fluctuation detection. G25 disables spindle speed fluctuation detection.\r\nFormat\r\n- Spindle speed fluctuation detection on\r\nG26 Pp Qq Rr Ii;\r\np: Time (in ms) from the issue of a new spindle rotation command (S command) to the start \r\nof checking whether the actual spindle speed is so fast that an overheat can occur.\r\nWhen a specified speed is reached within the time period of P, a check is started at that \r\ntime.\r\nq: Tolerance (%) of a specified spindle speed\r\n = 1\u2212 \u00d7100"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b68-a6ca-11ee-8924-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 185, "chroma:document": "= 1\u2212 \u00d7100\r\nspecified spndle speed\r\nactual spindle speed q\r\nIf a specified spindle speed lies within this range, it is regarded as having reached the \r\nspecified value. Then, the checking of an actual spindle speed is started.\r\nr: Spindle speed fluctuation (%) at which the actual spindle speed is so fast that an \r\noverheat can occur\r\n = 1\u2212 \u00d7100\r\nspeciofied spndle speed\r\nspeed that can cause overheat\r\nr\r\nIf the fluctuation of the actual spindle speed to the specified spindle speed exceeds the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b69-a6ca-11ee-9263-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 185, "chroma:document": "spindle speed fluctuation of R, the actual spindle speed is regarded as being so fast that \r\nan overheat can occur.\r\ni: Spindle speed fluctuation width at which the actual spindle speed (min-1\r\n) is so fast that \r\nan overheat can occur\r\nIf the fluctuation (width) between the specified and actual spindle speeds exceeds the \r\nspindle speed fluctuation width of I, the actual spindle speed is regarded as being so fast \r\nthat an overheat can occur.\r\nNOTE\r\nSpecify G26 in a separate block."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b6a-a6ca-11ee-979e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 185, "chroma:document": "G26 enables the spindle speed fluctuation detection function. The values specified for P, Q, R, and I are \r\nset in the following parameters: No. 4914, No. 4911, No. 4912, and No. 4913, respectively. Each \r\ncommand address corresponds to a parameter number as listed below.\r\nCommand address Parameter number\r\nQ No.4911\r\nR No.4912\r\nI No.4913\r\nP No.4914\r\nIf the P, Q, R, or I command address is omitted, the function detects the fluctuation of the actual spindle"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b6b-a6ca-11ee-a447-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 185, "chroma:document": "speed according to the value set in the corresponding parameters Nos. 4914, 4911, 4912, or 4913.\r\nThe parameters Nos. 4914, 4911, 4912, and 4913 for the spindle on which the currently selected position \r\ncoder is mounted are used for the setting and spindle speed fluctuation detection check."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b6c-a6ca-11ee-9809-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 186, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 157 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Spindle speed fluctuation detection off\r\nG25;\r\nNOTE\r\nSpecify G25 in a separate block.\r\nG25 disables the spindle speed fluctuation detection function.\r\nWhen G25 is specified, the parameters Nos. 4914, 4911, 4912, and 4913 are unchanged. \r\nExplanation\r\nThe function for detecting spindle speed fluctuation checks whether the actual speed varies for the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b6d-a6ca-11ee-bbc9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 186, "chroma:document": "specified speed or not. Si or Sr, whichever is greater, is taken as the allowable fluctuation speed (Sm). An \r\nalarm (OH0704) is activated when the actual spindle speed varies for the commanded speed (Sc) under \r\nthe condition that the variation width exceeds the allowable variation width (Sm).\r\n|Sc \u2013 Sa| > Sm\r\nSc : Specified spindle speed\r\nSa : Actual spindle speed\r\nSi : The allowable constant variation width which is independent of the specified spindle speed \r\n(parameter No.4913)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b6e-a6ca-11ee-ad15-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 186, "chroma:document": "(parameter No.4913)\r\nSr : The allowable variation width which is obtained by multiplying Sc (commanded spindle speed) \r\nby r (constant ratio). (r = parameter No.4912)\r\nBit 0 (FLR) of parameter No. 4900= 0 Bit 0 (FLR) of parameter No. 4900= 1\r\n100\r\nr Sr = Sc \u00d7\r\n1000\r\nr Sr = Sc \u00d7\r\nSm: Si or Sr, whichever is greater\r\n- Conditions to start spindle speed fluctuation detection\r\nIf the specified spindle speed Sc changes, spindle speed fluctuation detection starts when one of the \r\nconditions below is met."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b6f-a6ca-11ee-b2e6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 186, "chroma:document": "conditions below is met. \r\nWhen bit 7 (FDTs) of parameter No. 4900 is set to 1, spindle speed fluctuation detection starts when \r\ncondition <2> is met.\r\n<1> The actual spindle speed falls in a range of (Sc - Sq) to (Sc + Sq)\r\nSc : Specified spindle speed\r\nSq : Tolerance within which the spindle is assumed to attain the programmed speed\r\n(parameter No.4911)\r\nParameter FLR= 0 Parameter FLR= 1\r\n100\r\nq Sq = Sc \u00d7\r\n1000\r\nq Sq = Sc \u00d7"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b70-a6ca-11ee-b1f2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 186, "chroma:document": "q Sq = Sc \u00d7\r\n1000\r\nq Sq = Sc \u00d7\r\n<2> When time p specified in parameter No. 4914 elapses after the specified speed Sc changes."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b71-a6ca-11ee-9785-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 187, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 158 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Examples of spindle speed fluctuation detection\r\n(Example 1)\r\nWhen an alarm OH0704 is issued after a specified spindle speed is reached\r\nSpindle \r\nspeed\r\nSpecified \r\nspeed\r\nActual \r\nspeed\r\nTime\r\nSpecification of Start of check Alarm\r\nanother speed\r\nCHECK NO CHECK CHECK\r\nSq\r\nSq\r\nSi\r\nSi\r\nSr\r\nSr\r\nG26 mode\r\nP\r\n(Example 2)\r\nWhen an alarm OH0704 is issued before a specified spindle speed is reached\r\nSpindle \r\nspeed\r\nSpecified \r\nspeed"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b72-a6ca-11ee-b6da-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 187, "chroma:document": "speed\r\nSpecified \r\nspeed\r\nActual \r\nspeed \r\nTime\r\nStart of Alarm\r\ncheck\r\nSpecification of \r\nanother speed\r\nCHECK NO CHECK CHECK\r\nSq\r\nSq\r\nSi\r\nSi\r\nSr\r\nSr\r\nP\r\nG26 mode\r\nSpecified speed : (Speed specified by address S and five-digit value) \u00d7 (spindle override)\r\nActual speed : Speed detected with a position coder\r\np : Period after a change occurs in the actual spindle speed until detection starts\r\nParameter No.4914, address P\r\nSq: (Specified spindle speed) \u00d7 (Detection start tolerance (q))"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b73-a6ca-11ee-bfa8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 187, "chroma:document": "Parameter No.4911, address Q\r\nParameter FLR = 0 Parameter FLR = 1\r\n100\r\nq\r\n1000\r\nq\r\nSr : (Specified spindle speed) \u00d7 (Allowable variation (r))\r\nParameter No.4912, address R\r\nParameter FLR = 0 Parameter FLR = 1\r\n100\r\nr\r\n1000\r\nr"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b74-a6ca-11ee-8944-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 188, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 159 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\nSi : Allowable variation width\r\nParameter No.4913, address I\r\nIf the difference between the specified speed and actual speed exceeds both Sr and Si, an alarm OH0704 \r\nis raised.\r\n- Relationship between spindle speed control and each spindle\r\nSpindle\r\nFunction\r\nSerial spindle\r\n1st spindle 2nd spindle 3rd spindle 4th spindle\r\nSpindle speed fluctuation detection Possible Possible(*1) Possible(*1) Possible(*1)\r\nNOTE"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b75-a6ca-11ee-b5d7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 188, "chroma:document": "NOTE\r\n1 A multi spindle control function is necessary.\r\n2 The spindle speed fluctuation detection function is effective for a single spindle. \r\nThe function cannot be executed for two or more spindles. \r\nThe spindle speed fluctuation detection function is effective for a spindle on \r\nwhich the currently selected position coder is mounted. Just a single position \r\ncoder can be selected. Multiple position coders cannot be selected. For the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b76-a6ca-11ee-becf-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 188, "chroma:document": "selection of a position coder, see the section of \"Multi spindle.\" \r\n* Position coder selection signals (PC2SLC, PC3SLC, PC4SLC)\r\n3 The parameters that become valid are the parameters of the spindle speed \r\nfluctuation detection function (No.4911, No.4912, No.4913, No.4914) for the \r\nspindle on which the currently selected position coder is mounted.\r\n- Spindle for which to detect the spindle speed fluctuation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b77-a6ca-11ee-bcae-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 188, "chroma:document": "For the spindle for which to detect the spindle speed fluctuation, refer to the appropriate manual provided \r\nby the machine tool builder.\r\n- About spindle speed fluctuation detection at power-on or cleared state\r\nAt power-on or cleared state by reset, whether spindle speed fluctuation detection function is disabled\r\n(G25 mode) or is enabled (G26 mode) depends on the setting of bit 0 (G26) of parameter No. 4902 as \r\nfollows."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff0b78-a6ca-11ee-8126-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 188, "chroma:document": "follows.\r\n- When bit 0 (G26) of parameter No. 4902 set to 0, spindle speed fluctuation detection function is\r\ndisabled.\r\n- When bit 0 (G26) of parameter No. 4902 set to 1, spindle speed fluctuation detection function is\r\nenabled. \r\nPlacing the G25/G26 group in the cleared state requires the following parameter settings:\r\n- Bit 6 (CLR) of parameter No. 3402 set to 1\r\n- Bit 0 (C08) of parameter No. 3407 set to 1 (T series) / Bit 3 (C19) of parameter No. 3408 set to 1 (M\r\nseries)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3176-a6ca-11ee-a0f4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 188, "chroma:document": "series)\r\nAbout these parameters and G25/G26 mode state at power-on or reset, refer to following."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3177-a6ca-11ee-8518-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 189, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 160 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\nG26(No.4902#0) CLR(No.3402#6)\r\n(T series)\r\nC08(No.3407#0)\r\n(M series)\r\nC19(No.3408#3)\r\nAt power-on\r\nAt reset \r\nin G25 mode\r\nAt reset \r\nin G26 mode\r\n0\r\n0 0 G25 G25 G26\r\n1 G25 G25 G26\r\n1 0 G25 G25 G25\r\n1 G25 G25 G26\r\n1\r\n0 0 G26 G25 G26\r\n1 G26 G25 G26\r\n1 0 G26 G26 G26\r\n1 G26 G25 G26\r\n- Parameters of spindle speed fluctuation detection at power-on"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3178-a6ca-11ee-96e8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 189, "chroma:document": "At power-on when bit 6 (UDPs) of parameter No.4900 is set to 1, parameters Nos. 4921 to 4924 (dp, dq, \r\ndr, di) are valid and parameters Nos. 4911 to 4914 (p, q, r, i) are invalid.\r\nBecause of specified address P, Q, R, I in the machining program, value of parameters Nos. 4911 to 4914 \r\n(p, q, r, i) are changed and value of parameters Nos. 4921 to 4924 (dp, dq, dr, di) are not changed. So, \r\nparameters Nos. 4921 to 4924 (dp, dq, dr, di) are used as default parameter at power-on."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3179-a6ca-11ee-9f44-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 189, "chroma:document": "When parameters Nos. 4921 to 4924 (dp, dq, dr, di) are valid, if address P, Q, R, I are specified in the \r\nmachining program even once as following,\r\nG26 Pp Qq Rr Ii ;\r\nthe specified values are set for parameters Nos. 4911 to 4914 (p, q, r, i) and these parameters are valid as \r\nparameters of spindle speed fluctuation detection. If address P, Q, R, I are not specified in the machining \r\nprogram, parameters Nos. 4921 to 4924 (dp, dq, dr, di) are still valid. Examples of valid spindle speed"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff317a-a6ca-11ee-ae87-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 189, "chroma:document": "fluctuation detection parameters are shown below.\r\nAt cleared state, G25 / G26 mode changes according to parameter bit 0 (G26) of parameter No.4902, but \r\nvalid parameters of spindle speed fluctuation detection don\u2019t change. And, When mode is change into \r\nG25 mode, Valid state of the parameters of spindle speed fluctuation detection is held. After that, when \r\nmode is change into G26 mode again, this valid state is applied. Examples are shown below.\r\nG25 mode p q r i\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr \u25cb di \u25cb"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff317b-a6ca-11ee-9228-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 189, "chroma:document": "G26 mode \u25cb dp \u25cb dq \u25cb dr \u25cb di \u25cb\r\nCurrent mode and valid parameters\r\nG26 Pp Qq Rr Ii ; machining program\r\nG25 mode p \u25cb q \u25cb r \u25cb i \u25cb\r\nG26 mode \u25cb dp dq dr di\r\n(Example 1)\r\nG25 mode p q r i\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr \u25cb di \u25cb\r\nG26 Rr Ii ;\r\nG25 mode p q r \u25cb i \u25cb\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr di\r\n(Example 2)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff317c-a6ca-11ee-86a7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 190, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 161 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\nNOTE\r\nAlarm PS1305 is issued because value of specified address P, Q, R, I in the \r\nmachining program is out of valid data range. At this time, about address of \r\nvalue out of valid data range, if type of parameters Nos. 4921 to 4924 (dp, dq, \r\ndr, di) are valid before machining program, type of parameters Nos. 4921 to \r\n4924 (dp, dq, dr, di) are still valid.\r\nG25 mode p q r i\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr \u25cb di \u25cb\r\nG26 Rr Ii ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff317d-a6ca-11ee-8873-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 190, "chroma:document": "G26 Rr Ii ;\r\nG25 mode p q r \u25cb i \u25cb\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr di\r\n(Example 4)\r\nclear (bit 0 (G26) of parameter No.4902 is set to 1)\r\nG25 mode p q r \u25cb i \u25cb\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr di\r\nG25 ;\r\nG25 mode \u25cb p q r i\r\nG26 mode dp dq dr di\r\nG26 ;\r\nG25 mode p q r \u25cb i \u25cb\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr di\r\nG25 mode p q r \u25cb i \u25cb\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr di\r\nG25 ;\r\nG25 mode \u25cb p q r i\r\nG26 mode dp dq dr di\r\nG25 mode p q r \u25cb i \u25cb\r\nG26 mode \u25cb dp \u25cb dq \u25cb dr di\r\n(Example 3)\r\nclear (bit 0 (G26) of parameter No.4902 is set to 1)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff317e-a6ca-11ee-bc1a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 191, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 162 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n9.6 SPINDLE CONTROL WITH SERVO MOTOR\r\n9.6.1 Spindle Control with Servo Motor\r\n- Command with a program\r\nThis function provides SV speed control mode in which spindle rotation commands, S commands, are \r\neffective to a rotation axis with a servo motor and position control mode in which normal positioning can \r\nbe performed. To place a servo motor under speed control, you must turn SV speed control mode ON"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff317f-a6ca-11ee-b042-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 191, "chroma:document": "(G96.4). Once SV speed control mode is turned ON,\r\nS commands are effective to the servo motor until it is canceled.\r\nYou cannot specify positioning commands while SV speed control mode is ON. To perform positioning, \r\nyou must cancel SV speed control mode.\r\nTo cancel SV speed control mode (turn position control mode ON), you must specify a spindle indexing \r\ncommand, G96.1/G96.2.\r\nIn position control mode, S commands are invalid as in the normal servo axis state. Note, however, S"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3180-a6ca-11ee-8f58-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 191, "chroma:document": "command information is stored; when SV speed control mode is ON, rotation starts at the already \r\nspecified speed.\r\n- Command with a signal\r\nYou can also turn SV speed control mode ON/OFF with the SV speed control mode signal SRVON1 to \r\nSRVON8. When you turn SV speed control mode ON with the signal, and if you turn SV speed control \r\nmode OFF with a program command, you must specify the SV speed control mode signal or specify"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3181-a6ca-11ee-8db7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 191, "chroma:document": "G96.4 to turn SV speed control mode ON again. You can check the state of SV speed control mode with \r\nthe SV speed control mode in-progress signal SVREV1 to SVREV8. \r\nWhen you turn SV speed control mode signal OFF while rotating, spindle indexing is executed. Then SV \r\nspeed control mode is turned off. Spindle indexing is executed with R0(absolute position 0).\r\nNOTE\r\nTo specify a M code to turn SV speed control mode ON/OFF by the SV speed \r\ncontrol mode signal SRVON1 to SRVON8, use an independent block."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3182-a6ca-11ee-9f46-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 191, "chroma:document": "Format\r\nG96.4 P_ ; SV speed control mode ON\r\nM03 (M04) S_ P_ ; Rotation command\r\nS: Spindle speed [min-1\r\n] (numeric value of up to five digits)\r\nP: Spindle selection with multi-spindle control\r\nTo specify a spindle selection command P, use parameter No. 3781 (P code for selecting a spindle in \r\nmulti-spindle control).\r\nUsing G96.4 and a spindle selection command P can turn the SV speed control mode ON for each axis"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3183-a6ca-11ee-8999-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 191, "chroma:document": "separately. Likewise, using a spindle indexing command (G96.1/G96.2) and a spindle selection command \r\nP can cancel the SV speed control mode, that is, turn on the position control mode ON, for each axis \r\nseparately.\r\nTo specify \u201cG96.4 P_ ;\u201d, use an independent block.\r\nHowever, it is possible to specify \"G96.4 P_ S_ ;\"."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3184-a6ca-11ee-82a8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 192, "chroma:document": "B-64694EN/01 PROGRAMMING\r\n- 163 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n9.6.2 Spindle Indexing Function\r\nFormat\r\nG96.1 P_ R_ ; After spindle indexing is completed, the operation of the next block is \r\nstarted.\r\nG96.2 P_ R_ ; Before spindle indexing is completed, the operation of the next block \r\nis started.\r\nG96.3 P_ ; After it is confirmed that spindle indexing is completed, the operation \r\nof the next block is started.\r\nP: Spindle selection with multi-spindle control"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3185-a6ca-11ee-979b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 192, "chroma:document": "R: Stoppage angle [deg] (0 to (parameter No. 1260))\r\nTo specify a spindle selection command P, use parameter No. 3781 (P code for selecting a spindle in \r\nmulti-spindle control).\r\nTo turn the position control mode ON without performing spindle indexing, do so after canceling the SV \r\nspeed control mode by issuing a G96.1 command with no R specified when the motor is at a halt.\r\nWhen the motor is rotating, issuing a G96.1 (or G96.2) command with no R specified results in the motor"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3186-a6ca-11ee-9b52-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 192, "chroma:document": "coming to a halt by behaving in the same manner as for R0.\r\nNOTE\r\n1 When using G96.2, issue G96.3 before another spindle move command, to \r\nmake sure that the spindle is at a complete halt.\r\n2 To issue G96.1, G96.2, or G96.3, use an independent block.\r\nSpindle indexing command\r\n- Move command\r\n(1) Command waiting for spindle indexing to be completed\r\nIf G96.1 is issued, the next block is executed after spindle indexing is completed.\r\n(2) Command not waiting for spindle indexing to be completed"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3187-a6ca-11ee-a25a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 192, "chroma:document": "If G96.2 is issued, the next block can be executed before spindle indexing is completed.\r\n- Movement completion check command\r\nG96.3 is used to check to see if spindle indexing is completed. If it has not been completed, the next \r\nblock waits for spindle indexing to be completed. If it is completed, the next block is executed.\r\n- SV speed control mode cancellation\r\nIf G96.1 is used to perform spindle indexing, the SV speed control mode is canceled when spindle \r\nindexing is completed."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3188-a6ca-11ee-9590-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 192, "chroma:document": "indexing is completed.\r\nIf G96.2 is used to perform spindle indexing, G96.3 can be used to check to see if spindle indexing is \r\ncompleted and, if completed, cancel the SV speed control mode. Issuing G96.2 not followed by G96.3 \r\ncannot cancel the SV speed control mode even if spindle indexing is completed.\r\nStart SV speed control mode cancellation at a path to which the axis of interest belongs.\r\n- Spindle indexing command during spindle rotation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3189-a6ca-11ee-b52b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 192, "chroma:document": "Issuing G96.1 or G96.2 with a position specified during spindle\r\nrotation causes the spindle to stop at the specified position. \r\nExample)\r\nM03 S1000 ;................ Rotation at S1000\r\nG96.1 P1 R180. ;......... Stoppage of rotation at the 180deg position"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff318a-a6ca-11ee-8d40-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 193, "chroma:document": "PROGRAMMING B-64694EN/01\r\n- 164 -\r\n9.SPINDLE SPEED FUNCTION \r\n(S FUNCTION)\r\n- Spindle indexing speed\r\nIssuing G96.1 or G96.2 causes a move speed to be dedicated to\r\nspindle indexing. Specify the move speed for spindle indexing,\r\nusing parameter No. 11012.\r\nSpindle indexing command (absolute coordinate/machine coordinate)\r\nUsing bit 0 (SIC) of parameter No. 11005 can select which coordinate\r\nsystem, absolute or machine, is to be used in spindle indexing.\r\nExample:"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff318b-a6ca-11ee-93f5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 193, "chroma:document": "Example:\r\nIf the difference between the machine and absolute coordinates (machine coordinate \u2013 absolute \r\ncoordinate) is 100.000:\r\n- Spindle indexing performed by turning the SV speed control mode signals SRVON1 to \r\nSRVON8 OFF (\u201c1\u201d to \u201c0\u201d) or issuing a spindle indexing G code (with no R specified)\r\n1. If bit 0 (SIC) of parameter No. 11005 = 0:\r\nSpindle indexing is performed with a machine coordinate of 100.000 and an absolute \r\ncoordinate of 0.000.\r\n2. If bit 0 (SIC) of parameter No. 11005 = 1:"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff318c-a6ca-11ee-bc73-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 193, "chroma:document": "Spindle indexing is performed with a machine coordinate of 0.000 and an absolute \r\ncoordinate of 260.000.\r\n- G code-based spindle indexing (with R specified)\r\nAssuming that spindle indexing is specified with R100.000:\r\n1. If bit 0 (SIC) of parameter No. 11005 = 0:\r\nSpindle indexing is performed with a machine coordinate of 200.000 and an absolute \r\ncoordinate of 100.000.\r\n2. If bit 0 (SIC) of parameter No. 11005 = 1:\r\nSpindle indexing is performed with a machine coordinate of 100.000 and an absolute"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff318d-a6ca-11ee-ae05-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 193, "chroma:document": "coordinate of 0.000."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff318e-a6ca-11ee-b94e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 194, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 165 -\r\n10 TOOL FUNCTION (T FUNCTION)\r\n10.1 TOOL SELECTION FUNCTION\r\nBy specifying an up to 8-digit numerical value following address T, a code signal and a strobe signal are \r\ntransmitted to the machine tool. This is used to select tools on the machine.\r\nOne T code can be commanded in a block. Refer to the machine tool builder's manual for the number of"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff318f-a6ca-11ee-9c00-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 194, "chroma:document": "digits commendable with address T and the correspondence between the T codes and machine operations.\r\nWhen a move command and a T code are specified in the same block, the commands are executed in one \r\nof the following two ways:\r\n(i) Simultaneous execution of the move command and T function commands.\r\n(ii) Executing T function commands upon completion of move command execution.\r\nThe selection of either (i) or (ii) depends on the machine tool builder's specifications. Refer to the manual"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3190-a6ca-11ee-bd0f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 194, "chroma:document": "issued by the machine tool builder for details.\r\nExplanations\r\nT\r\nThe value after the T code indicates the desired tool. Part of the value is also used as a tool offset number \r\nthat specifies the amount of tool offset or the like. The tool can be selected as follows according to the \r\nspecification method and parameter settings.\r\nDescription of a T code (Note 1)\r\nHow to specify the offset number for \r\neach parameter setting Bit 1 (LGN) of parameter No. (Note 2)\r\n5002 = 0\r\nBit 1 (LGN) of parameter No."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3191-a6ca-11ee-ab97-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 194, "chroma:document": "Bit 1 (LGN) of parameter No. \r\n5002 = 1\r\nT\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1 \uf0a1\r\n\u2191 \u2191\r\nTool selection Tool geometry\r\ntool wear offset\r\nT\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1 \uf0a1\r\n\u2191 \u2191\r\nTool selection Tool wear\r\ntool geometry offset\r\noffset\r\nThe tool wear offset number is specified \r\nusing the low-order one digit of a T code.\r\nWhen parameter No.5028 is set to 1\r\nT\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1 \uf0a1\uf0a1\r\n\u2191 \u2191\r\nTool selection Tool geometry\r\ntool wear offset\r\nT\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1 \uf0a1\uf0a1\r\n\u2191 \u2191\r\nTool selection Tool wear\r\ntool geometry offset\r\noffset\r\nThe tool wear offset number is specified"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3192-a6ca-11ee-a7ae-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 194, "chroma:document": "using the low-order two digits of a T code.\r\nWhen parameter No.5028 is set to 2\r\nT\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1 \uf0a1\uf0a1\uf0a1\r\n\u2191 \u2191\r\nTool selection Tool geometry\r\ntool wear offset\r\nT\uf0a1\uf0a1\uf0a1\uf0a1\uf0a1 \uf0a1\uf0a1\uf0a1\r\n\u2191 \u2191\r\nTool selection Tool wear\r\ntool geometry offset\r\noffset\r\nThe tool wear offset number is specified \r\nusing the low-order three digits of a T code.\r\nWhen parameter No.5028 is set to 3\r\nNOTE\r\n1 The maximum number of digits of a T code can be specified by parameter \r\nNo.3032 as 1 to 8."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3193-a6ca-11ee-afe2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 194, "chroma:document": "No.3032 as 1 to 8.\r\n2 When parameter No.5028 is set to 0, the number of digits used to specify the \r\noffset number in a T code depends on the number of tool offsets.\r\nExample)\r\nWhen the number of tool offsets is 1 to 9: Low-order one digit\r\nWhen the number of tool offsets is 10 to 99: Low-order two digits\r\nWhen the number of tool offsets is 100 to 999: Low-order three digits"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3194-a6ca-11ee-aa97-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 195, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 166 -\r\nRefer to the machine tool builder's manual for correspondence between the T-code and the tool and the \r\nnumber of digit to specify tool selection.\r\nExample (T2+2)\r\nN1G00X1000Z1400;\r\nN2T0313; (Select tool No. 3 and tool offset value No. 13)\r\nN3X400Z1050;\r\n10.2 TOOL MANAGEMENT FUNCTION\r\nOverview\r\nThe tool management function totally manages tool information including information about tool offset \r\nand tool life.\r\nExplanation"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3195-a6ca-11ee-807a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 195, "chroma:document": "and tool life.\r\nExplanation\r\nA tool type number is specified with a T code. The tool type number is any number the user can define \r\nfreely. With tool type numbers, tools can be grouped by various conditions such as life, compensation \r\nvalue, and cutting conditions. When each type is assumed to have a single tool, tool type numbers are \r\nequivalent to unique tool numbers.\r\nFor each tool, an information storage area is prepared in the CNC (SRAM). This area contains"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3196-a6ca-11ee-9e57-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 195, "chroma:document": "information such as a tool type number, tool life, tool status (such as a breakage condition), tool \r\ncompensation number (H, D, G, or W), spindle speed (S), cutting feedrate (F), and freely-definable \r\ncustomize data. Such data is called tool management data.\r\nA cartridge management table that links cartridge information and tool management data is provided so \r\nthat the CNC can manage the cartridges of the machine and tool change operations. In addition, areas for"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3197-a6ca-11ee-8a99-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 195, "chroma:document": "managing the tools in the spindle and tool standby positions are prepared.\r\nWhen a tool type number is specified using a T code command, a tool that has the tool type number and \r\nthe shortest life is searched for, and the cartridge number and pot number of the location where the tool is \r\nstored are output to the PMC. Then, a tool change operation using the cartridge number and pot number is \r\nenabled by the PMC ladder sequence."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3198-a6ca-11ee-8de1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 195, "chroma:document": "Tool information in the CNC is managed by the tool management data and cartridge management table \r\n(including the spindle management table and standby position table).\r\n- Tool management data\r\nAs tool management data, information about each tool is registered with a tool management data number.\r\nThe following number of sets of tool management data can be used:\r\nTool management function 64 sets 64 sets in total\r\nTool management function 240 sets 240 sets in total"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3199-a6ca-11ee-b383-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 195, "chroma:document": "Tool management function 1000 sets 1000 sets in total\r\nNOTE\r\nFor the number of tool management data sets, refer to the relevant manual \r\nissued by the machine tool builder."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff319a-a6ca-11ee-a5b5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 196, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 167 -\r\n- Details of data\r\nThe following details the tool management data registered for each data number:\r\n- Tool type number (T code)\r\nItem Description\r\nData length 4byte\r\nValid data range 0,1 to 99,999,999\r\n- Tool life counter\r\nItem Description\r\nData length 4byte\r\nUnit of data When the number of use times is specified: Times\r\nWhen time is specified: Seconds\r\nValid data range When the number of use times is specified: 0 to 99,999,999 times"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff319b-a6ca-11ee-a412-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 196, "chroma:document": "When time is specified: 0 to 3,599,999 s (999 hours 59 minutes 59 seconds)\r\nThe value of an increment counter, that is, the number of use times (time) is indicated. The remaining life \r\nvalue is [the maximum tool life value minus tool life counter value].\r\n- Maximum tool life value\r\nItem Description\r\nData length 4byte\r\nUnit of data When the number of use times is specified: Times\r\nWhen time is specified: Seconds\r\nValid data range When the number of use times is specified: 0 to 99,999,999 times"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff319c-a6ca-11ee-9c9d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 196, "chroma:document": "When time is specified: 0 to 3,599,999 s (999 hours 59 minutes 59 seconds)\r\n- Notice life value\r\nItem Description\r\nData length 4byte\r\nUnit of data When the number of use times is specified: Times\r\nWhen time is specified: Seconds\r\nValid data range When the number of use times is specified: 0 to 99,999,999 times\r\nWhen time is specified: 0 to 3,599,999 s (999 hours 59 minutes 59 seconds)\r\nIf a value other than 0 is set, the tool life expiration notice signal TLCHB or TLCHBx is output when the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff319d-a6ca-11ee-9429-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 196, "chroma:document": "remaining life value of the tool (= maximum tool life value minus tool life counter value) has reached the \r\nset value.\r\n- Tool life status\r\nItem Description\r\nData length 1byte\r\nDetail data 0: Life management is not performed.\r\n1: Tool not yet used\r\n2: Life remains.\r\n3: Life expired.\r\n4: Tool breakage (skip)\r\nThe machine (PMC) determines tool breakage and stores corresponding information through the window."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff319e-a6ca-11ee-b0a3-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 196, "chroma:document": "In tool management of the CNC, a broken tool is regarded as being equivalent to tools whose lives have \r\nexpired."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff319f-a6ca-11ee-9a39-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 197, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 168 -\r\n- Tool information\r\nItem Description\r\nData length 1 byte (flag data)\r\n#0 RGS 0: Tool management data is invalid. (-)\r\n1: Tool management data is valid. (R)\r\n#1 TIM 0: Type for counting the number of use times (C)\r\n1: Type for counting time (T)\r\n#2 BDT 0: Normal tool (N)\r\n1: Oversize tool (B)\r\n#3 LOC 0: Data accessible (U)\r\n1: Data not accessible (L)\r\n#4 SEN When the tool life status indicates that tool management is not performed:"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a0-a6ca-11ee-9fc6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 197, "chroma:document": "0: This tool is not searched. (-).\r\n1: This tool is searched. (S)\r\n#5 to #7 Reserved\r\nWhen RGS is set to 0 in tool management data, the tool management data is regarded as not being\r\nregistered even when values are set for other items.\r\nNOTE\r\nMake sure you specify the same life count type for all tools of the same type. \r\nYou can check tools of the same type for any difference in life count type, using \r\nthe \"check function.\"\r\nM\r\n- Tool length compensation number (H)\r\nItem Description\r\nData length 2byte"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a1-a6ca-11ee-97d9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 197, "chroma:document": "Data length 2byte\r\nValid data range 0 to 999\r\n- Cutter compensation number (D)\r\nItem Description\r\nData length 2byte\r\nValid data range 0 to 999\r\nT\r\n- Tool geometry compensation number (G)\r\nItem Description\r\nData length 2byte\r\nValid data range 0 to 999\r\n- Tool wear compensation number (W)\r\nItem Description\r\nData length 2byte\r\nValid data range 0 to 999\r\nNOTE\r\nWhen the machine control type is the combined system type, tool length \r\ncompensation and cutter compensation numbers are used for paths for the"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a2-a6ca-11ee-aaba-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 197, "chroma:document": "machining center system, and for paths for the lathe system, tool geometry \r\ncompensation and tool wear compensation numbers are used."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a3-a6ca-11ee-a8f7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 198, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 169 -\r\n- Spindle speed (S)\r\nItem Description\r\nData length 4byte\r\nUnit of data min-1\r\nValid data range 1 to 99,999\r\n- Feedrate (F)\r\nItem Description\r\nData length 4byte\r\nUnit of data mm/min, inch/min, deg/min, mm/rev, inch/rev \r\nValid data range 0 to 99,999,999\r\nAs additional tool management data, areas for setting customize data (5 data items including customize"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a4-a6ca-11ee-98bc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 198, "chroma:document": "data 0 and customize data 1 to 4) are provided without defining specific usage. The user can use these \r\ncustomize data areas freely to set a warning life value, cutting resistance, override value, spindle current \r\nvalue, maximum and minimum S/F, and other items according to the targeted application.\r\n- Customize data 0\r\nItem Description\r\nData length 1 byte (bit type)\r\nValid data range 0 or 1 on a bit-by-bit basis\r\n- Customize data 1 to 4 (to 20) (to 40)\r\nItem Description\r\nData length 4byte"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a5-a6ca-11ee-82e9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 198, "chroma:document": "Data length 4byte\r\nValid data range -99,999,999 to 99,999,999\r\nNOTE\r\nFor the maximum number of tool management function customization data\r\nitems, refer to the relevant manual issued by the machine tool builder.\r\n- Cartridge management table\r\nThe storage status of tools in cartridges is managed with the cartridge management table.\r\n- Multiple cartridge numbers can be defined. (Numbers from 1 to 4, up to four cartridges)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a6-a6ca-11ee-a476-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 198, "chroma:document": "- The maximum number of pots for all cartridges is 64, 240, or 1000, which depends on whether a \r\ntool management data option is selected.\r\n- Cartridge numbers and pot numbers can be assigned freely within cartridge management data by \r\nparameter setting (described later).\r\n- The tool management data number adjacent to a pot number is linked with tool data defined in the \r\ntool management table. Therefore, the tool attached to the pot is indicated."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a7-a6ca-11ee-ad49-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 198, "chroma:document": "- Zero set as a data number indicates that no tool is attached.\r\n- The cartridge management table can be read from and written to through the PMC window and \r\nFOCAS2.\r\n- The spindle management table and standby position table are provided to indicate special cartridge \r\npositions.\r\n- Spindle positions and standby positions, regarded as special cartridge positions, have fixed cartridge \r\nnumbers 11 to 14 (the positions of the first to fourth spindles) and 21 to 24 (the first to fourth \r\nstandby positions)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a8-a6ca-11ee-b60c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 198, "chroma:document": "standby positions).\r\n- With the PMC window, the spindle position table and standby position table can be read from and \r\nwritten to.\r\n- Tool life counting is performed only for the tools at the spindle positions."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31a9-a6ca-11ee-a144-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 199, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 170 -\r\n- Multi-path system\r\nThe tool management data and cartridge management table are common data among the paths. The \r\nspindle management table and standby position table, however, are treated as independent data for each \r\npath.\r\nWhen the spindle table or standby position table is specified as a cartridge from the PMC window, \r\nspecify the following, in which the path number is set in the hundred\u2019s place:\r\nSpindle position"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31aa-a6ca-11ee-ba1c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 199, "chroma:document": "Spindle position\r\nFirst Second Third Fourth\r\nFirst path 111(11) 112(12) 113(13) 114(14)\r\nSecond path 211 212 213 214\r\nStandby position\r\nFirst Second Third Fourth\r\nFirst path 121(21) 122(22) 123(23) 124(24)\r\nSecond path 221 222 223 224\r\nNOTE\r\nWhen specifying 111, 121, and so on to specify the first path, you may specify \r\njust 11, 21, and so on.\r\n. . . . .\r\nTool management data\r\n- Data of each tool such as type number, life status, and compensation number \r\n- The number of sets of data is 64, 240, or 1000."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ab-a6ca-11ee-af3e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 199, "chroma:document": "Cartridge management table\r\n- This table indicates the cartridge and pot to which each set of tool management \r\ndata is assigned.\r\n- Up to four cartridges are used.\r\nPath 1 Path 2 Path 10\r\nStandby position table\r\n121 to 124 (21 to 24)\r\nSpindle position table\r\n111 to 114 (11 to 14)\r\nStandby position table\r\n221 to 224\r\nSpindle position table\r\n211 to 214\r\nStandby position table\r\n1021 to 1024\r\nSpindle position table\r\n1011 to 1014\r\n- M/T series"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ac-a6ca-11ee-bcfb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 199, "chroma:document": "1011 to 1014\r\n- M/T series\r\nThe tool management data and cartridge management table are data common to the M and T series.\r\n- Tool life management and tool change\r\nThe CNC performs tool life management, regarding tools having the same tool type number as a group. \r\nWhen a tool type number (T code) is specified by an NC program, the tool management data registered in \r\nthe CNC is searched to find a tool having the shortest life among the tools with the same tool type \r\nnumber."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ad-a6ca-11ee-a901-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 199, "chroma:document": "number.\r\nThe cartridge number and pot number corresponding to the searched tool are output as a T code signal to \r\nthe PMC. Based on the output cartridge number and pot number, the PMC performs preparation for a tool \r\nchange (to the next tool). A different tool can also be selected on the PMC side.\r\nThe CNC performs tool life counting for each tool that is at a spindle position in the spindle management \r\ntable."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ae-a6ca-11ee-af96-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 199, "chroma:document": "table.\r\nWhen the lives of all tools having the tool type number specified by the T code have expired, alarm \r\nPS5317, \u201cALL TOOL LIFE IS OVER\u201d is issued. If there is a tool in the spindle position or standby \r\nposition, that tool is selected to continue machining."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31af-a6ca-11ee-8e91-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 200, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 171 -\r\nAs the T code signal, a specified tool type number instead of the cartridge number and pot number can \r\nalso be output directly by parameter setting.\r\nThere are two types of tool life management counting methods: counting the number of use times and \r\ncounting cutting time. One of the counting methods is set in tool information of tool management data.\r\nOther major specifications related to tool life management are as follows:"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b0-a6ca-11ee-ab78-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 200, "chroma:document": "Tool type number (T code) : Up to 8 digits (1 to 99,999,999)\r\nMaximum tool life value : 99,999,999 times when the number of use times is specified\r\n: 999 hours 59 minutes 59 seconds when time is specified\r\nLife count interval when time is specified : 1 second\r\nTool life management count restart M code : Enabled\r\nTool life count override : Enabled\r\nTo specify a certain tool directly without performing tool life management by tool type number, use the \r\nfollowing format:"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b1-a6ca-11ee-a61b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 200, "chroma:document": "following format:\r\nM (value in parameter No. 13252) T (cartridge number) (pot number) ;\r\nWhen parameter No. 13252 is set to 333, the cartridge number is 2, and the pot number is 27, for example, \r\nthe following command is specified:\r\nM333 T20027;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b2-a6ca-11ee-bdc6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 201, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 172 -\r\n- Tool search order\r\nTools having a tool type number (T) specified by a program are searched sequentially from tool \r\nmanagement data number 1 while registered data contents are checked. The following shows how a \r\nsearch operation is made within the NC:\r\nIs tool management data valid (is bit 0 (RGS) of tool information set to 1)?\r\nIs tool being edited?\r\nDoes tool type number (T) match with specified number?"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b3-a6ca-11ee-ba61-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 201, "chroma:document": "Is tool registered in cartridge (is cartridge number non-zero value)?\r\nIs cartridge targeted for search (are bits 0 to 3 of parameter No. 13203 set to 0)?\r\nIs tool registered at spindle position or standby position of another path?\r\nDoes tool life status indicate that tool management is not performed (0)?\r\nIs tool excluded from management target a search target (is bit 4 (SEN) of tool information 1)?\r\nSearch end\r\nDoes tool life status indicate that life expired (3)?"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b4-a6ca-11ee-b38e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 201, "chroma:document": "Does tool life status indicate tool breakage (4)?\r\nRegard tool with smallest remaining life or customize data value as candidate.\r\nBit 6 (SWC) of parameter No. 13203 (0: Check remaining life, 1: Check customize data)\r\nCheck of next tool?\r\nSearch end\r\nYes\r\nNo\r\nNo\r\nYes\r\nYes\r\nNo\r\nYes\r\nNo\r\nYes\r\nNo\r\nNo\r\nYes\r\nNo Yes\r\nNo\r\nYes\r\nNo\r\nNo\r\nYes\r\nYes"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b5-a6ca-11ee-afc5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 202, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 173 -\r\n- System variables\r\nThe following tool management data of the tool being used as a spindle after a tool change by M06 and \r\nthe tool to be used next which is specified by a T code can be read through custom macro variables:\r\nBeing used Item\r\n#8401 Tool management data number\r\n#8402 Tool type number (T)\r\n#8403 Tool life counter\r\n#8404 Maximum tool life value\r\n#8405 Tool notice life value\r\n#8406 Tool life status\r\n#8407 Customize data 0 (bit)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b6-a6ca-11ee-ab22-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 202, "chroma:document": "#8407 Customize data 0 (bit)\r\n#8408 Tool information\r\n#8409 Tool length compensation number (H)\r\n#8410 Cutter compensation number (D)\r\n#8411 Spindle speed (S)\r\n#8412 Cutting feedrate (F)\r\n#8413 Tool geometry compensation number (G)\r\n#8414 Tool wear compensation number (W)\r\n#8431 Customize data 1\r\n#8432 Customize data 2\r\n#8433 Customize data 3\r\n#8434 Customize data 4\r\n#8435 Customize data 5\r\n#8436 Customize data 6\r\n#8437 Customize data 7\r\n#8438 Customize data 8\r\n#8439 Customize data 9"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b7-a6ca-11ee-bdcd-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 202, "chroma:document": "#8439 Customize data 9\r\n#8440 Customize data 10\r\n#8441 Customize data 11\r\n#8442 Customize data 12\r\n#8443 Customize data 13\r\n#8444 Customize data 14\r\n#8445 Customize data 15\r\n#8446 Customize data 16\r\n#8447 Customize data 17\r\n#8448 Customize data 18\r\n#8449 Customize data 19\r\n#8450 Customize data 20\r\n#8451 Customize data 21\r\n#8452 Customize data 22\r\n#8453 Customize data 23\r\n#8454 Customize data 24\r\n#8455 Customize data 25\r\n#8456 Customize data 26\r\n#8457 Customize data 27\r\n#8458 Customize data 28"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b8-a6ca-11ee-8b6c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 202, "chroma:document": "#8458 Customize data 28\r\n#8459 Customize data 29\r\n#8460 Customize data 30\r\n#8461 Customize data 31\r\n#8462 Customize data 32\r\n#8463 Customize data 33\r\n#8464 Customize data 34\r\n#8465 Customize data 35\r\n#8466 Customize data 36\r\n#8467 Customize data 37\r\nFor machining \r\ncenter systems\r\nFor lathe systems"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31b9-a6ca-11ee-9ccc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 174 -\r\nBeing used Item\r\n#8468 Customize data 38\r\n#8469 Customize data 39\r\n#8470 Customize data 40\r\nWhen a cartridge number of a spindle position (11 to 14) or standby position (21 to 24) is specified in \r\n#8400, information about the corresponding position can be read.\r\nIf the spindle position table or standby position table has an empty pot, <empty> is read from #8402 to \r\n#8470.\r\nValue 0 is read from #8401 (data number)."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ba-a6ca-11ee-a018-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "Therefore, machining conditions registered in tool management data can be specified directly by coding, \r\nfor example, D#8410, H#8409, S#8411, and F#8412 with a tool change macro (such as M06). Similarly, \r\ncustomize data can be referenced by a custom macro, and machining programs can be customized \r\naccording to the tool used.\r\nNOTE\r\nFor the maximum number of tool management function customization data\r\nitems, refer to the relevant manual issued by the machine tool builder."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31bb-a6ca-11ee-9eff-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "- Specifying a tool compensation number\r\nM\r\nWhen parameter No. 13265 is 0, a compensation number registered as tool management data of a tool \r\nattached at a spindle position can be selected by specifying H99 or D99.\r\n(99 is treated as a special number, so 99 cannot be specified directly as a compensation number.)\r\nWhen other than 0 is set in parameter No. 13265, the number set in the parameter can be specified instead"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31bc-a6ca-11ee-a0dc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "of 99. For example, if parameter No. 13265 is 3, specifying H3 specifies the tool length compensation \r\nnumber registered for the tool at the spindle position.\r\nT\r\nWhen the tool management function is not used, a tool compensation number is specified also with a T \r\ncode; when the tool management function is used, the T code is used only to specify a tool type number, \r\nso a tool compensation number must be specified with address D."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31bd-a6ca-11ee-b6ed-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "Except the specifications for addresses, the specifications for the number of permissible digits (parameter \r\nNo. 3032) and the number of digits consisting of a compensation number (parameter No. 5028), \r\nseparation of geometry compensation numbers and wear compensation numbers (bit 1 (LGN) of \r\nparameter No. 5002), and so on are the same as for T.\r\nIf parameter No. 13265 is set to 0, when a compensation number registered for a tool attached at a spindle"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31be-a6ca-11ee-b06d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "position is specified, the specification format varies according to the number of digits as follows, which is \r\nthe same as for conventional T:\r\nWhen the compensation number is 1 digit long : D9\r\nWhen the compensation number is 2 digits long : D99\r\nWhen the compensation number is 3 digits long : D999\r\nBecause 9, 99, or 999 is treated as a special number, it cannot be specified directly as a compensation \r\nnumber."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31bf-a6ca-11ee-be98-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 203, "chroma:document": "number.\r\nUnless parameter No. 13265 is set to 0, the number set in the parameter can be specified instead of 9, 99, \r\nor 999. When parameter No. 13265 is set to 3, specifying D3 specifies the tool geometry compensation \r\nnumber and tool wear compensation number registered for a tool attached at the spindle position."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c0-a6ca-11ee-894b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 204, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 175 -\r\nMulti-path system\r\nDepending on whether the local path is a machining center system or a lathe system, tool compensation \r\nnumbers are specified by using one of the above methods.\r\nSpindle selection\r\nWhen specifying compensation numbers of a tool attached to a spindle other than the first spindle, specify \r\nthe spindle number with address P within the same block that contains H/D. When specifying the first \r\nspindle, you can omit P."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c1-a6ca-11ee-83fb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 204, "chroma:document": "spindle, you can omit P.\r\nD99 P3; Specifying compensation numbers registered for the tool attached at the third spindle\r\nD99; Specifying compensation numbers registered for the tool attached at the first spindle\r\n- Read/write operations for tool management data and cartridge management \r\ntable\r\nThe tool management data and cartridge management table can be read from and written to by using the \r\nCNC/PMC data window library (FOCAS2). Therefore, a specific tool management system including all"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c2-a6ca-11ee-a73f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 204, "chroma:document": "available tool data not registered in the CNC can be built easily by using the personal computer function.\r\nSimilarly, the tool management data and cartridge management table can also be read from and written to \r\nusing the PMC window.\r\nTool management data of the tool being used as a spindle after a tool change operation performed by M06 \r\nand the tool being selected by specifying a T code can be read using a custom macro."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c3-a6ca-11ee-a4eb-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 204, "chroma:document": "The user can modify tool management data by MDI from the tool management function screen of the \r\nCNC. Addition, modification, and deletion of the above tool management data can be made from a part \r\nprogram (G10). Such data can also be input to and output from external I/O equipment by using the ALL \r\nI/O screen and tool management function screen.\r\n- G10 format\r\nAddition, modification, and deletion are performed for the tool management data and cartridge"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c4-a6ca-11ee-9cc0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 204, "chroma:document": "management table from programs. For use of this function, the programmable data input option function \r\nis required.\r\nIf a format error is found in the commands from G10 L75/L76/L77 to G11, or if a value beyond the valid \r\ndata range is specified, alarm PS5312, \u201cILLEGAL COMMAND IN G10 L75/76/77\u201d is issued. In such a \r\ncase, correct the program. Within the range from G10 to G11, no decimal point can be specified with any"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c5-a6ca-11ee-b1f0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 204, "chroma:document": "address. If a decimal point is specified, alarm PS0007, \u201cILLEGAL USE OF DECIMAL POINT\u201d results.\r\n- Registering new tool management data\r\nTool management data can be registered. When data is output to an external device from the tool\r\nmanagement data screen, this format is used. The specification of those items that are not registered may \r\nbe omitted."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c6-a6ca-11ee-8cee-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 205, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 176 -\r\nG10 L75 P1;\r\nN_ ; Tool management data number specification\r\nT_ C_ L_ I_ B_ Q_ H_ D_ S_ F_ J_ K_ ;\r\nP0 R_ ; Customization data 0\r\nP1 R_ ; Customization data 1\r\nP2 R_ ; Customization data 2\r\nP3 R_ ; Customization data 3\r\nP4 R_ ; Customization data 4\r\nN_ ; Next tool management data number specification\r\n:\r\nG11;\r\nN_ Tool management data No. 1 to 64 (1 to 240, 1 to 1000)\r\nT_ Tool type No. (T) 0 to 99,999,999\r\nC_ Tool life counter 0 to 99,999,999"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c7-a6ca-11ee-8f77-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 205, "chroma:document": "L_ Maximum tool life 0 to 99,999,999\r\nI_ Noticed life 0 to 99,999,999\r\nB_ Tool life state 0 to 4\r\nQ_ Tool information Bit format (8 bits)\r\nH_ Tool length compensation No. (H) 0 to 999 (M series)\r\nD_ Cutter compensation No. (D) 0 to 999 (M series)\r\nS_ Spindle speed (S) 0 to 99,999\r\nF_ Cutting feedrate (F) 0 to 99,999,999\r\nJ_ Tool geometry compensation No. (G) 0 to 999 (T series)\r\nK_ Tool geometry compensation No. (W) 0 to 999 (T series)\r\nP_ Customization data No. 0 to 4 (0 to 20, 0 to 40)"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c8-a6ca-11ee-bb10-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 205, "chroma:document": "R_ Customization data value -99,999,999 to 99,999,999\r\nSpecify customization data in the following format:\r\nP (customization-number) R (value)\r\nUse the bit format only when specifying the customization data 0 (P0). Specify other data in the binary \r\nformat. The specification of customization data that need not be set may be omitted.\r\nExample)\r\nG10 L75 P1;\r\nN1 ; Tool management data No.1\r\nT10000001 C0 L1000 B1 Q00000001 H1 D1 S4000 F10000 ;\r\nP0 R11101101 ; Customization data 0"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31c9-a6ca-11ee-8f51-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 205, "chroma:document": "P4 R99999999 ; Customization data 4\r\nN2 ; Tool management data No.2\r\nT10000002 C0 L2000 B1 Q00000001 H2 D2 S3000 F6000 ;\r\nP1 R200 ; Customization data 1\r\nP2 R10 ; Customization data 2\r\nN5 ; Tool management data No.5\r\nT10000005 C0 L5000 B1 Q00000001 H5 D5 S5000 F11000 ;\r\nP2 R1 ; Customization data 2\r\nP3 R500 ; Customization data 3\r\nG11 ;\r\nRegistering tool management data No.1\r\nRegistering tool management data No.2\r\nRegistering tool management data No.5"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ca-a6ca-11ee-b1cc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 206, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 177 -\r\nModifying tool management data\r\nTool management data can be modified.\r\nThe specification of those items that are not modified may be omitted.\r\nG10 L75 P2 ;\r\nN_ ;\r\nT_ C_ L_ I_ B_ Q_ H_ D_ S_ F_ J_ K_ ;\r\nP_ R_ ;\r\nN_ ;\r\n:\r\nG11 ;\r\nDeleting tool management data\r\nThe data of a specified data number can be deleted from tool management data.\r\nThe cartridge management table data corresponding to a deleted tool management data number is also"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31cb-a6ca-11ee-9fd0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 206, "chroma:document": "deleted. (The tool management data number in the cartridge management table is cleared to 0.)\r\nG10 L75 P3 ;\r\nN_ ;\r\nN_ ;\r\n:\r\nN_ ;\r\nG11 ;\r\nRegistering new cartridge management table data\r\nA tool management data number can be registered with a free pot in the cartridge management table.\r\nG10 L76 P1 ; \r\nN cartridge-number P pot-number R tool-management-data-number ;\r\nN cartridge-number P pot-number R tool-management-data-number ;\r\nN cartridge-number P pot-number R tool-management-data-number ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31cc-a6ca-11ee-b3fc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 206, "chroma:document": "N cartridge-number P pot-number R tool-management-data-number ;\r\nG11 ;\r\nFor a spindle position table and standby position table, only cartridge number data is specified.\r\nExample)\r\nG10 L76 P2 ; \r\nN11 R1; Changes the tool management data number of the spindle position to No. 1.\r\nN21 R29; Changes the tool management data number of the standby position to No. 29.\r\nG11 ;\r\nModifying the cartridge management table\r\nTool management data numbers in the cartridge management table can be modified."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31cd-a6ca-11ee-a7f1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 207, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 178 -\r\nG10 L76 P2 ; \r\nN cartridge-number P pot-number R tool-management-data-number ;\r\nN cartridge-number P pot-number R tool-management-data-number ;\r\nN cartridge-number P pot-number R tool-management-data-number ;\r\nN cartridge-number P pot-number R tool-management-data-number ;\r\nG11 ;\r\nFor a spindle position table and standby position table, only cartridge number data is specified.\r\nExample)\r\nG10 L76 P2 ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ce-a6ca-11ee-84c9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 207, "chroma:document": "Example)\r\nG10 L76 P2 ; \r\nN11 R1; Changes the tool management data number of the spindle position to No. 1.\r\nN21 R29; Changes the tool management data number of the standby position to No. 29.\r\nG11 ;\r\nDeleting cartridge management table data\r\nTool management data numbers can be deleted from the cartridge management table.\r\nG10 L76 P3 ; \r\nN cartridge-number P pot-number ;\r\nN cartridge-number P pot-number ;\r\nN cartridge-number P pot-number ;\r\nN cartridge-number P pot-number ;\r\nG11 ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31cf-a6ca-11ee-89ae-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 207, "chroma:document": "G11 ;\r\nFor a spindle position table and standby position table, only cartridge number data is specified.\r\nExample)\r\nG10 L76 P3 ; \r\nN11 ; Deletes the tool management data number of the spindle position (clears the number to 0).\r\nN21 ; Deletes the tool management data number of the standby position (clears the number to 0).\r\nG11 ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d0-a6ca-11ee-9678-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 208, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 179 -\r\nNaming customization data\r\nThe display name of customization data (0 to 40) can be set.\r\nG10 L77 P1 ; \r\nN_ ;\r\nP_ R_ ;\r\nP_ R_ ;\r\n;\r\nN_ ;\r\nP_ R_ ;\r\nP_ R_ ;\r\nG11 ;\r\nN_: Customization data No. (0 to 40)\r\nP_: Character No. (1 to 16)\r\nR_: Character code (ASCII)\r\n- Specify 0 to clear data.\r\n- A set display name can be checked on the tool management data screen only."}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d1-a6ca-11ee-812a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 208, "chroma:document": "- When no name is registered, a name such as the default \"Customize 3\" is displayed.\r\n- A name consisting of up to 16 characters is displayed. For a name shorter than 16 characters, register \r\n0 in the empty area. Those characters that are registered immediately before 0 are displayed.\r\n- To clear data, set 0 as a character code.\r\n- No character code data check is made.\r\nWhen the name of customization data 3 is set as \"MEASURE5\", for example, specify the following:\r\nExample)\r\nG10 L77 P1 ;"}


created_at: 2023-12-30 04:21:26
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d2-a6ca-11ee-b60d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 208, "chroma:document": "Example)\r\nG10 L77 P1 ;\r\nN3 ; Specifies customization data 3.\r\nP1 R32 ; character \u2018space\u2019 ASCII code 20h\r\nP2 R77 ; character \u201cM\u201d ASCII code 4Dh\r\nP3 R69 ; character \u201cE\u201d ASCII code 45h\r\nP4 R65 ; character \u201cA\u201d ASCII code 41h\r\nP5 R83 ; character \u201cS\u201d ASCII code 53h\r\nP6 R85 ; character \u201cU\u201d ASCII code 55h\r\nP7 R82 ; character \u201cR\u201d ASCII code 54h\r\nP8 R69 ; character \u201cE\u201d ASCII code 45h\r\nP9 R53 ; character \u201c5\u201d ASCII code 35h\r\nP10 R0 ; Clears data. (Not displayed. End)\r\nG11 ;"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d3-a6ca-11ee-b3fd-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 209, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 180 -\r\n Naming tool life states\r\nThe display name of a tool life state (0 to 4) can be set.\r\nG10 L77 P2 ; \r\nN_ ;\r\nP_ R_ ;\r\nP_ R_ ;\r\nN_ ;\r\nP_ R_ ;\r\nP_ R_ ;\r\nG11 ;\r\nN_: Tool life state (0 to 4)\r\nP_: Character No. (1 to 12)\r\nR_: Character code (ASCII)\r\n- Specify 0 to clear data.\r\n- A set display name can be checked on the tool management data screen only.\r\n- If no name is registered, a default such as \"Remaining\" and \"Unremaining\" is displayed."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d4-a6ca-11ee-9a40-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 209, "chroma:document": "- A name consisting of up to 12 characters is displayed. For a name shorter than 12 characters, register \r\n0 in the empty area. Those characters that are registered immediately before 0 are displayed.\r\n- To clear data, set 0 as a character code.\r\n- No character code data check is made.\r\n- The defaults are as follows:\r\n- 0: Invalid\r\n- 1: Remaining\r\n- 2: Remaining\r\n- 3: Unremaining\r\n- 4: Broken\r\nTo set \"NORMAL\" as the name of tool life state 2 (Remaining), specify the following:\r\nExample)\r\nG10 L77 P2 ;"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d5-a6ca-11ee-ad39-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 209, "chroma:document": "Example)\r\nG10 L77 P2 ;\r\nN2 ; Specifies tool life state 2.\r\nP1 R78 ; character \u201cN\u201d ASCII code 4Eh\r\nP2 R79 ; character \u201cO\u201d ASCII code 4Fh\r\nP3 R82 ; character \u201cR\u201d ASCII code 52h\r\nP4 R77 ; character \u201cM\u201d ASCII code 4Dh\r\nP5 R65 ; character \u201cA\u201d ASCII code 41h\r\nP6 R76 ; character \u201cL\u201d ASCII code 4Ch\r\nP7 R0 ; Clears data. (Not displayed. End)\r\nG11 ;"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d6-a6ca-11ee-8fe5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 210, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 181 -\r\n10.3 TOOL MANAGEMENT EXTENSION FUNCTION\r\nOverview\r\nThe following functions have been added to the tool management function:\r\n1. Customization of tool management data display\r\n2. Setting of spindle position/standby position display\r\n3. Input of customize data with the decimal point\r\n4. Protection of various tool information items with the KEY signal\r\n5. Selection of a tool life count period\r\n6. Each tool data screen"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d7-a6ca-11ee-a1b2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 210, "chroma:document": "6. Each tool data screen\r\n7. Total life time display for tools of the same type\r\nThey will be explained in detail below.\r\n10.3.1 Customization of Tool Management Data Display\r\nWith the tool management data screen display customization function, the display positions of screen\r\nelements (type number, tool information, life counter, and so forth) on the tool management screen can be \r\nchanged and whether to display or hide such screen elements can be chosen using the G10 format. This"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d8-a6ca-11ee-8865-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 210, "chroma:document": "function enables a customized tool management screen to be configured.\r\nFormat\r\nG10L77P3;\r\nN_ R_;\r\nG11;\r\nN_: Tool management data screen display position number\r\nR_: Tool management data display item\r\nExplanation\r\n- number (N_)\r\n- A display position number represents an ordinal number from the leftmost position on the tool \r\nmanagement data screen.\r\n- As N, a number from 1 to 200 can be specified.\r\n- Tool management data display item (R_)\r\n- For a value to be set (in R_), see the table below."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31d9-a6ca-11ee-9382-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 210, "chroma:document": "- For actual setting, consider a display width plus 1.\r\n- Items common to machining center systems and lathe systems\r\nR Item Display width Remarks\r\n-1 End of setting -\r\n0 Blank column 10\r\n1 No. 4 For spindle/standby positions for 2\r\npaths\r\n2 TYPE-NO. 8\r\n3 MG 4\r\n4 POT 5\r\n5 T-INFORMATION 10\r\n6 L-COUNT 10\r\n7 MAX-LIFE 10\r\n8 NOTICE-L 10"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31da-a6ca-11ee-b7ed-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 211, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 182 -\r\nR Item Display width Remarks\r\n9 L-STATE 6 or 12 The display width is switched by bit \r\n1 of parameter No. 13201.\r\n10 S (Spindle speed) 10\r\n11 F (Feedrate) 10\r\n12 Tool figure number (A) 3\r\n- Offset-related items for machining center systems \r\nR Item Display width Remarks\r\n20 H (Tool length compensation number) 4\r\n21 D (Cutter compensation number) 4\r\n22 OFFSET-M 10 Tool offset memory A\r\n25 GEOMETRY(H) 10 Tool offset memory C\r\n26 WEAR(H) 10"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31db-a6ca-11ee-8d86-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 211, "chroma:document": "26 WEAR(H) 10\r\n27 GEOMETRY(D) 10\r\n28 WEAR(D) 10\r\n- Offset-related items for lathe systems \r\nR Item Display width Remarks\r\n40 TG (Tool geometry compensation\r\nnumber)\r\n4\r\n41 TW (Tool wear compensation number) 4\r\n42 OFFSET-X 10\r\n43 OFFSET-Z 10\r\n44 OFFSET-R 10 Tool nose radius compensation\r\n45 TIP 10\r\n46 OFFSET-Y 10 Y-axis offset\r\n47 OFFSET-B 10 B-axis control\r\n48 GEOMETRY (X) 10 Tool geometry/wear compensation\r\n49 WEAR (X) 10\r\n50 GEOMETRY (Z) 10\r\n51 WEAR (Z) 10"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31dc-a6ca-11ee-b22d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 211, "chroma:document": "51 WEAR (Z) 10\r\n52 GEOMETRY (R) 10 Tool nose radius compensation, Tool \r\n53 GEOMETRY TIP 10 geometry/wear compensation\r\n54 WEAR (R) 10\r\n55 WEAR TIP 10\r\n56 GEOMETRY (Y) 10 Y-axis offset, Tool geometry/ wear \r\n57 WEAR (Y) 10 compensation\r\n58 GEOMETRY (B) 10 B-axis control, Tool geometry/ wear \r\n59 WEAR (B) 10 compensation\r\n60 GEOMETRY (X2) 10 2nd geometry tool offset\r\n61 GEOMETRY (Z2) 10\r\n62 GEOMETRY (Y2) 10\r\nItems related to customize data\r\nR Item Display width Remarks\r\n80 CUSTOM 0 10\r\n81 CUSTOM 1 10"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31dd-a6ca-11ee-89ca-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 211, "chroma:document": "80 CUSTOM 0 10\r\n81 CUSTOM 1 10\r\n82 CUSTOM 2 10\r\n83 CUSTOM 3 10\r\n84 CUSTOM 4 10"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31de-a6ca-11ee-9d2b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 212, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 183 -\r\nR Item Display width Remarks\r\n85 CUSTOM 5 10 Tool management function customize \r\ndata extension (5 to 20) or tool \r\nmanagement function customize data\r\nextension (5 to 40)\r\n86 CUSTOM 6 10\r\n87 CUSTOM 7 10\r\n88 CUSTOM 8 10\r\n89 CUSTOM 9 10\r\n90 CUSTOM 10 10\r\n91 CUSTOM 11 10\r\n92 CUSTOM 12 10\r\n93 CUSTOM 13 10\r\n94 CUSTOM 14 10\r\n95 CUSTOM 15 10\r\n96 CUSTOM 16 10\r\n97 CUSTOM 17 10\r\n98 CUSTOM 18 10\r\n99 CUSTOM 19 10\r\n100 CUSTOM 20 10"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31df-a6ca-11ee-8ed7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 212, "chroma:document": "100 CUSTOM 20 10\r\n101 CUSTOM 21 10 Tool management function customize \r\n102 CUSTOM 22 10 data extension (5 to 40)\r\n103 CUSTOM 23 10\r\n104 CUSTOM 24 10\r\n105 CUSTOM 25 10\r\n106 CUSTOM 26 10\r\n107 CUSTOM 27 10\r\n108 CUSTOM 28 10\r\n109 CUSTOM 29 10\r\n110 CUSTOM 30 10\r\n111 CUSTOM 31 10\r\n112 CUSTOM 32 10\r\n113 CUSTOM 33 10\r\n114 CUSTOM 34 10\r\n115 CUSTOM 35 10\r\n116 CUSTOM 36 10\r\n117 CUSTOM 37 10\r\n118 CUSTOM 38 10\r\n119 CUSTOM 39 10\r\n120 CUSTOM 40 10\r\nNOTE"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e0-a6ca-11ee-9d63-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 212, "chroma:document": "120 CUSTOM 40 10\r\nNOTE\r\n1 If G10 L77 P3 is terminated normally, the power must be turned off before \r\noperation is continued.\r\n2 The setting becomes effective after the power is turned off then back on."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e1-a6ca-11ee-8c87-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 213, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 184 -\r\nExample\r\nExample of setting tool offset memory A\r\nG10L77P3;\r\nN1 R1;\r\nN2 R2;\r\nN3 R3;\r\nN4 R4;\r\nN5 R5;\r\nN6 R6;\r\nN7 R7;\r\nN8 R8;\r\nN9 R9;\r\nN10 R11;\r\nN11 R21; \r\nN12 R22;\r\nN13 R80;\r\nN14 R81;\r\nN15 R-1;\r\nG11;\r\nSet tool management data screen display customization\r\nSet No. as number 1\r\nSet TYPE-NO. as number 2\r\nSet MG as number 3\r\nSet POT as number 4\r\nSet T-INFORMATION as number 5\r\nSet L-COUNT as number 6\r\nSet MAX-LIFE as number 7"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e2-a6ca-11ee-965a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 213, "chroma:document": "Set MAX-LIFE as number 7\r\nSet NOTICE-L as number 8\r\nSet L-STATE as number 9\r\nSet F (Feedrate) as number 10\r\nSet D as number 11\r\nSet OFFSET-M as number 12\r\nSet CUSTOM 0 as number 13\r\nSet CUSTOM 1 as number 14\r\nEnd\r\nCancel the setting mode\r\nOn the tool management data screen, the first page displays \"No., Type Number, MG, Pot, Tool \r\nInformation, Life Counter, Maximum Life, Noticed Life, and Life State\".\r\nThe second page displays \"F (Feedrate), D (Cutter Compensation Number), Tool Offset-M, Customize"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e3-a6ca-11ee-9351-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 213, "chroma:document": "Data 0, and Customize Data 1\".\r\nExample 1: Page 1"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e4-a6ca-11ee-973a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 214, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 185 -\r\nExample 1: Page 2\r\nNOTE\r\n1 This setting is enabled when bit 0 (TDC) of parameter No. 13201 is set to 1.\r\n2 Up to 20 pages can be set.\r\n3 Be sure to specify an end.\r\n4 If an item that requires the corresponding option is specified without specifying\r\nthe option, the item is displayed as a blank field.\r\n5 No items after an end are displayed.\r\n(Example) In the case of N1 \u2192 R1 (No.), N2 \u2192 R2 (Type Number), N 3 \u2192 R3"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e5-a6ca-11ee-b286-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 214, "chroma:document": "(MG), N4 \u2192 R-1 (End), N5 \u2192 R4 (Pot), only the items \"No., Type\r\nNumber, and MG\" are displayed on the screen.\r\n6 If G10 L77 P3 is specified, the setting immediately before is initialized.\r\n7 If an invalid value is set in R (tool management data display item), a blank field is \r\ndisplayed.\r\n10.3.2 Setting of Spindle Position / Standby Position Display\r\nIn MG on the tool management data screen, a spindle position or standby position is displayed as a"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e6-a6ca-11ee-a63b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 214, "chroma:document": "number such as 11, 12, and 13. With the spindle position/standby position display setting function, three \r\narbitrary characters can be displayed using the G10 format.\r\nFormat\r\nG10L77P4;\r\nN_;\r\nP_R_;\r\nG11;\r\nN_: Spindle position/standby position setting\r\nP_: Character number\r\nR_: Character code"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e7-a6ca-11ee-b968-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 215, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 186 -\r\nExplanation\r\n- Spindle position/standby position setting (N_)\r\nSpecify a spindle position or standby position to be renamed. The table below indicates the values to be \r\nspecified.\r\nSpindle position\r\nFirst Second Third Fourth\r\n1st path 111 112 113 114\r\n2nd path 211 212 213 214\r\nStandby position\r\nFirst Second Third Fourth\r\n1st path 121 122 123 124\r\n2nd path 221 222 223 224\r\n- Character number (P_)"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e8-a6ca-11ee-8d61-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 215, "chroma:document": "- Character number (P_)\r\nSpecify a character number (1 to 3). Up to three characters are displayed. If a character string to be \r\nspecified is shorter than three characters, specify 0 in the leading blank character position(s). A character\r\nstring immediately before 0 is displayed.\r\n- Character code (R_)\r\nSet the name of a spindle position/standby position by using a character code (ASCII code).\r\n- For a character code, use ASCII code.\r\n- No character code data check is made.\r\nExample"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31e9-a6ca-11ee-aa2e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 215, "chroma:document": "Example\r\nWhen spindle 1 is named \"SP1\", and standby 1 is named \"WT1\"\r\nG10L77P4; Set spindle position/standby position\r\nN111; Specify spindle 1\r\nP1 R83; 53h as ASCII code for \"S\"\r\nP2 R80; 50h as ASCII code for \"P\"\r\nP3 R49; 31h as ASCII code for \"1\"\r\nN121; Specify standby 1\r\nP1 R87; 57h as ASCII code for \"W\"\r\nP2 R84; 54h as ASCII code for \"T\"\r\nP3 R49; 31h as ASCII code for \"1\"\r\nG11; Cancel the setting mode\r\nIn the MG item on the tool management data screen, spindle 1 is displayed as \"SP1\", and standby 1 is"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ea-a6ca-11ee-862e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 215, "chroma:document": "displayed as \"WT1\"."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31eb-a6ca-11ee-bfef-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 216, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 187 -\r\nNOTE\r\nData registered becomes effective after the screen display is switched to the tool \r\nmanagement screen.\r\n10.3.3 Input of Customize Data with the Decimal Point\r\nWith the function for input of customize data with the decimal point, the number of decimal places is set \r\nusing the G10 format for each customize data item (customize data 1, ..., 40) to enable data input with the \r\ndecimal point.\r\nFormat\r\nG10L77P5;\r\nN_R_;\r\nG11;"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ec-a6ca-11ee-845a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 216, "chroma:document": "Format\r\nG10L77P5;\r\nN_R_;\r\nG11;\r\nN_: Customize data number\r\nR_: Decimal point position\r\nExplanation\r\n- Customize data number (N_)\r\n- A number from 1 through 4 can be specified for N.\r\n- When tool management function customize data extension (from 5 through 20) is available, \r\nA number from 1 through 20 can be specified.\r\n- When tool management function customize data extension (from 5 through 40) is available, \r\nA number from 1 through 40 can be specified.\r\n- Decimal point position (R_)"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ed-a6ca-11ee-bd43-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 216, "chroma:document": "- Decimal point position (R_)\r\nSpecify a decimal point position (from 0 through 7). When 0 is set, the number of decimal places of \r\ncustomize data input cannot be performed."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ee-a6ca-11ee-aff9-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 217, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 188 -\r\nNOTE\r\n1 If G10 L77 P5 is terminated normally, the power must be turned off before \r\noperation is continued.\r\n2 The setting becomes effective after the power is turned off then back on.\r\n3 When the number of decimal places is set for customize data, the number of \r\ndecimal places can be input only through the MDI keys.\r\n4 To set the number of decimal places for customize data 5 to 20, the customize"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ef-a6ca-11ee-93f1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 217, "chroma:document": "data extension (5 to 20) option for the tool management function or the \r\ncustomize data extension (5 to 40) for the tool management function is required.\r\n5 To set the number of decimal places for customize data 21 to 40, the customize \r\ndata extension (5 to 40) for the tool management function is required.\r\nExample 1\r\nWhen customize data 1 and customize data 2 are input with three decimal places\r\nG10L77P5; Set the number of decimal places for customize data"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f0-a6ca-11ee-a4b2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 217, "chroma:document": "N1 R3; Set the number of decimal places to 3 for customize data 1\r\nN2 R3; Set the number of decimal places to 3 for customize data 2\r\nG11; Cancel the setting mode\r\n- Use in the G10 format\r\nBetween G10 and G11, the decimal point cannot be specified at any address. So, if decimal point input\r\nfor customize data is enabled with this function, a G10 L75/L76/L77 command using a custom macro \r\nvariable (#8431 to #8450) reads and sets the value of the integer part.\r\nExample 2\r\n(Example 1)\r\nCondition:"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f1-a6ca-11ee-aa84-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 217, "chroma:document": "(Example 1)\r\nCondition:\r\n\"3\" is set as the decimal point position of customize data 1.\r\n\"1\" is set as the decimal point position of customize data 2.\r\nOperation:\r\nData is transferred from customize data 1 to customize data 2 by using a custom macro\r\nvariable."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f2-a6ca-11ee-806d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 218, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 189 -\r\nG10L77P5; <1> Set customize data decimal point position\r\nN1 R3; <2> Set 3 as decimal point position of customize data 1\r\nN2 R1; <3> Set 1 as decimal point position of customize data 2\r\nG11; <4> Cancel the setting mode\r\n;\r\nG10 L75 P1; <5> Register tool management data\r\nN01; <6> Register with No. 1\r\nP1 R12345; <7> Set \u201c12.345\u201d for customize data 1\r\nP2 R#8431; <8> Set \u201c1.2\u201d for customize data 2\r\nG11; <9> Cancel the setting mode"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f3-a6ca-11ee-852e-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 218, "chroma:document": "In Example 1, customize data 1 is directly set in customize data 2 by using a custom macro variable.\r\nCustomize data 1 holds \"12.345\". In step <8>, only the integer part is read and processed as \"P2 \r\nR12\".\r\nSo, \"1.2\" is set in customize data 2.\r\n(Example 2)\r\nCondition:\r\n\"3\" is set as the decimal point position of customize data 1.\r\n\"1\" is set as the decimal point position of customize data 2.\r\nOperation:\r\nBy using the custom macro variable of customize data 1, the data is transferred to customize"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f4-a6ca-11ee-96d5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 218, "chroma:document": "data 2 after being multiplied by 1000.\r\nG10L77P5; <1> Set customize data decimal point position\r\nN1 R3; <2> Set 3 as decimal point position of customize data 1\r\nN2 R1; <3> Set 1 as decimal point position of customize data 2\r\nG11; <4> Cancel the setting mode\r\n;\r\nG10 L75 P1; <5> Register tool management data\r\nN01; <6> Register with No. 1\r\nP1 R12345; <7> Set \u201c12.345\u201d for customize data 1\r\nP2 R[#8431*1000]; <8> Set \u201c1234.5\u201d for customize data 2\r\nG11; <9> Cancel the setting mode"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f5-a6ca-11ee-ab48-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 218, "chroma:document": "In Example 2, customize data 1 is directly set in customize data 2 by using a custom macro variable.\r\nCustomize data 1 holds \"12.345\". In step <8>, the data is multiplied by 1000 to eliminate the \r\nfractional part.\r\nSo, this command is equivalent to \"P2 R12345\", so that \"1234.5\" is set in customize data 2.\r\n10.3.4 Protection of Tool Information with the KEY Signal\r\nWhen tool management data is in the edit state, information in it can be modified. By setting bit 0 of"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f6-a6ca-11ee-9802-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 218, "chroma:document": "parameter No. 13204 to 1, tool management data is protected with the KEY signal so that information in \r\nit cannot be registered, modified, and deleted."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f7-a6ca-11ee-995c-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 219, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 190 -\r\n10.3.5 Selection of a Tool Life Count Period\r\nA tool life count period can be chosen either 1 sec or 8 msec tool-by-tool.\r\n- Tool life count period selection\r\nBit 5 of tool information is used to select a life count period.\r\nItem Description\r\nData length 1 byte (flag data)\r\n#5 REV 0: A life count period of 1 sec is used. (S)\r\n1: A life count period of 8 msec is used. (M)\r\nRange of count is as follows."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f8-a6ca-11ee-97dc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 219, "chroma:document": "Range of count is as follows.\r\n1sec: 0 to 3,599,999 seconds (999 hours 59 minutes 59 seconds)\r\n8msec: 0 to 3,599,992 ms (59 minutes 59 seconds 992 milliseconds)\r\nNOTE\r\nThis function is valid when the tool information TIM (#1) is set to 1.\r\n10.3.6 Each tool Data Screen\r\nAll data for a specified tool can be extracted and displayed.\r\n10.3.7 Total Life Time Display for Tools of The Same Type\r\nThe remaining lives of tools with the same type numbers are totaled, and totals are displayed in order by"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31f9-a6ca-11ee-a3e1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 219, "chroma:document": "tool type number or by remaining life. Also, data of tools with the same tool type numbers are displayed \r\nin a list."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31fa-a6ca-11ee-ae63-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 220, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 191 -\r\n10.4 TOOL MANAGEMENT FUNCTION FOR OVERSIZE TOOLS\r\nOverview\r\nTool management function for oversize tools is added to the tool management function.\r\nThe figure of an oversize tool can be defined freely, and the figure of each oversize tool is registered. \r\nWhen an oversize tool is stored in a cartridge, interference with tools stored in other pots is considered. \r\nThis function is usable with cartridges of chain type and matrix type.\r\nFormat"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31fb-a6ca-11ee-a9d6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 220, "chroma:document": "Format\r\nBy G10 data input, an oversize tool number can be set in the tool management data. Moreover, tool figure\r\ndata can be set.\r\n<Registration of new tool management data>\r\nG10 L75 P1 ; \r\nN_;\r\nA_;\r\nG11 ;\r\nN_: Tool management data number\r\nA_: Specify tool figure number (0 to 20).\r\n<Modification of tool management data>\r\nG10 L75 P2; \r\nN_;\r\nA_;\r\nG11 ;\r\nN_: Tool management data number\r\nA_: Specify tool figure number (0 to 20).\r\n<Registration of tool figure data>\r\nG10 L77 P6 ; \r\nN_P_Q_R_S_T_;\r\nG11 ;"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31fc-a6ca-11ee-9cf0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 220, "chroma:document": "N_P_Q_R_S_T_;\r\nG11 ;\r\nN_: Tool figure number\r\nP_: Number of pots to be occupied in left direction (in steps of 0.5 pot)\r\nQ_: Number of pots to be occupied in right direction (in steps of 0.5 pot)\r\nR_: Number of pots to be occupied in upper direction (in steps of 0.5 pot)\r\nS_: Number of pots to be occupied in lower direction (in steps of 0.5 pot)\r\nT_: 0 for figure A, or 1 for figure B\r\nNOTE\r\n1 If a target tool is registered in a cartridge and interferes with other tools in"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31fd-a6ca-11ee-b20a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 220, "chroma:document": "registration or modification of tool figure data of the tool management data, \r\nalarm PS5360, \u201cTOOL INTERFERENCE CHECK ERROR\u201d is issued. (The data\r\nis not input.)\r\n2 If a tool interferes with other tools in registration or modification to the cartridge\r\nmanagement table, alarm PS5360 is issued. (The data is not input.)\r\n3 If an attempt is made to modify tool figure data, and the tool for which the tool\r\nfigure data number subject to modification is set is registered in the cartridge,"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31fe-a6ca-11ee-ac15-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 220, "chroma:document": "alarm PS5360 is issued. (The data is not input.)"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff31ff-a6ca-11ee-be29-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 192 -\r\n10.5 TOOL LIFE MANAGEMENT\r\nTools are classified into several groups, and a tool life (use count or use duration) is specified for each \r\ngroup in advance. Each time a tool is used, its life is counted, and when the tool life expires, a new tool \r\nthat is sequenced next within the same group is selected automatically. With this function, the tool life"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3200-a6ca-11ee-a5ac-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "can be managed while machining is being performed continuously. Data for tool life management \r\nconsists of tool group numbers, tool life values, tool numbers, and codes for specifying a tool offset value. \r\nThese data items are registered in the CNC.\r\nTool group number m\r\nTool life value l\r\n1 Tool number (T) Code for specifying tool offset \r\nvalue (H/D)\r\n1st-tool management data\r\n2 : : 2nd-tool management data\r\n:\r\n:\r\n:\r\n:\r\n:\r\n:\r\n:\r\n:\r\nn : : nth-tool management data\r\nMachine and CNC operations"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3201-a6ca-11ee-88d7-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "Machine and CNC operations\r\nMachine CNC\r\nPlaces a \r\nselected tool \r\nin the wait \r\nstate.\r\nAutomatically \r\nselects, from tool \r\ngroup m, a tool \r\nwhose life has not \r\nexpired.\r\nAttaches the \r\ntool in the \r\nwait state to \r\nthe spindle \r\n(tool \r\nchange).\r\nStarts counting the \r\nlife of the tool \r\nattached to the \r\nspindle.\r\nTool life \r\nmanagement data\r\nTool group number 1\r\n :\r\n :\r\nTool group number m\r\n :\r\n :\r\nTool group number p\r\nMachining program\r\n :\r\n :\r\nCommand for selecting \r\ntool group m\r\n :\r\n :"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3202-a6ca-11ee-a66b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "tool group m\r\n :\r\n :\r\nTool change command \r\n(M06)\r\n :\r\n :\r\nSelect \r\ntool.\r\nFig. 10.5 (a) Tool selection from machining program\r\nM\r\nA group is selected by a T code, and tool life counting is started by the M06 command.\r\nT\r\nThe T series has two tool change types (the turret type and the ATC type). The turret type uses only a T \r\ncode to select a group, specify a tool offset value, and start tool life counting, whereas the ATC type, like"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3203-a6ca-11ee-b3ec-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "the M series, uses a T code to select a group and the M06 command to start tool life counting. With the \r\nATC type, only a D code is used for specifying a tool offset value. The tool change type is selected by bit \r\n3 (TCT) of parameter No. 5040.\r\nCAUTION\r\nThis function cannot be used if bit 1 (LGN) of parameter No. 5002 is set to 1 to \r\nuse the same number as the tool selection number to specify a geometric offset \r\nnumber.\r\n- Life management B function"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3204-a6ca-11ee-90a4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "- Life management B function\r\nIf the tool life management B function is enabled, the maximum tool life value can be extended, and the \r\ntool life expiration prior notice signal can be output to post tool life expiration in advance when the \r\nremaining life (the life value minus the life counter value) has reached the remaining life setting. The \r\nremaining life setting is registered as tool life management data in the CNC in advance."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3205-a6ca-11ee-ab34-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 221, "chroma:document": "The tool life management B function is enabled by setting bit 4 (LFB) of parameter No. 6805 to 1."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3206-a6ca-11ee-b48f-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 222, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 193 -\r\nM\r\nIf the tool life management B function is enabled, the function for selecting a tool group by an arbitrary \r\ngroup number can be used.\r\nT\r\nThe tool life management B function can be used. However, the function for selecting a tool group by an \r\narbitrary group number can be used only if the tool change type is the ATC type (bit 3 (TCT) of \r\nparameter No. 5040 = 1).\r\n- Maximum number of tool life management groups and multipath system"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3207-a6ca-11ee-a8b6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 222, "chroma:document": "Up to 256 tool life management groups can be used in the entire CNC system.\r\nFor each path, set a maximum number of groups to be used in parameter No. 6813.\r\nThe maximum number of groups must be a multiple of the minimum number of groups (eight groups). If \r\nthe maximum number of groups is 0, the tool life management function is disabled.\r\nThe total number of groups in the entire CNC system can be expanded to 1024 groups by using the \r\nadditional tool life management groups."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3208-a6ca-11ee-b894-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 222, "chroma:document": "Multipath system (when tool life management is performed for three paths)\r\nSuppose that, of the total groups in the system (256 groups), 128 groups are \r\nallocated to path 1, 64 groups to path 2, and 64 groups to path 3. Then, set \r\nparameter No. 6813 as follows:\r\nTool life management data file\r\n(256 groups in total in system)\r\nPath 1\r\nUp to 128 groups\r\nPath 2\r\nUp to 64 groups\r\nPath 3\r\nUp to 64 groups\r\n Parameter No. 6813\r\nPath 1\r\nSet 128 in parameter\r\nPath 2\r\nSet 64 in parameter\r\nPath 3"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3209-a6ca-11ee-83a5-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 222, "chroma:document": "Set 64 in parameter\r\nPath 3\r\nSet 64 in parameter\r\nFig. 10.5 (b) Group allocation in entire system\r\nCAUTION\r\nRe-setting this parameter results in the tool life management data file being \r\ncleared at power-on. Once the parameter is re-set, register tool life management \r\ndata for each path again.\r\n- System variables\r\nThe following system variables for life data can be used in tool life management.\r\nSystem variable \r\nnumber\r\nSystem variable \r\nname\r\nAttrib\r\nute\r\nDescription"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff320a-a6ca-11ee-be92-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 222, "chroma:document": "name\r\nAttrib\r\nute\r\nDescription\r\n#181000 [#_TLMGN_C] R Tool life management data (Tool group numbers)\r\n#181001 [#_TLMML_C] R Tool life management data (Tool life values)\r\n#181002 [#_TLMLC_C] R Tool life management data (Life counter values)\r\nTool life values and life counter values are read by the following unit according to the life count type.\r\nLife count type Unit\r\nCount 1-time\r\nDuration 1-minute"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff320b-a6ca-11ee-8ba2-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 223, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 194 -\r\nNOTE\r\n1. Zero is read from the system variables #181000 to #181002 when a group being \r\nused not exists.\r\n2. Bit 0 (FCO) of parameter No.6805 not affect to the unit of tool life values and life \r\ncounter values.\r\n3. The information before change might be read from the system variables when \r\nthe following states. The system variables should be used after passing 100ms \r\nfrom changing."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff320c-a6ca-11ee-bfca-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 223, "chroma:document": "from changing.\r\n- Immediate aftermath of changing a group being used by M06 (When T \r\nsystem with setting bit 3 (TCT) of parameter No.5040 to 1 or M system.)/T \r\ncodes (When T system with setting bit 3 (TCT) of parameter No.5040 to 0).\r\n- Immediate aftermath of changing tool life management data by G10L3 \r\ncommand.\r\n4. When the system variables #181000 to #181002 is specified, alarm PS0115 \r\n\u201cVARIABLE NO. OUT OF RANGE\u201d occurs if tool life management is invalid."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff320d-a6ca-11ee-b0e1-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 223, "chroma:document": "5. Real-time custom macro does not support the system variables #181000 to \r\n#181002. When the system variables #181000 to #181002 is specified in \r\nreal-time custom macro, alarm PS0390 \u201cILLEGAL MACRO VAR\u201d occurs.\r\n10.5.1 Tool Life Management Data\r\nTool life management data consists of tool group numbers, tool numbers, codes for specifying a tool \r\noffset value, tool life values, arbitrary group numbers, and remaining life settings."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff320e-a6ca-11ee-bd5d-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 223, "chroma:document": "Whether to use arbitrary group numbers and remaining life settings can be specified by setting bit 5 \r\n(TGN) and bit 3 (GRP) of parameter No. 6802.\r\nExplanation\r\n- Tool group number\r\nUp to 256 tool life management groups can be used in the entire CNC system.\r\nIn parameter No. 6813, set a maximum number of groups to be used. With the set maximum number of \r\ngroups, up to four tools can be registered per group. The combination of the maximum number of"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff320f-a6ca-11ee-ae31-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 223, "chroma:document": "registrable groups and the maximum number of tools can be changed by setting bits 0 (GS1) and bit 1 \r\n(GS2) of parameter No. 6800 as follows.\r\nTable 10.5.1 Maximum numbers of registrable groups and tools\r\nBit 1 (GS2) of \r\nparameter No. 6800\r\nBit 0 (GS1) of \r\nparameter No. 6800 Number of groups Number of \r\ntools\r\n0 0 1/8 of maximum number of groups (parameter No. 6813) 32\r\n0 1 1/4 of maximum number of groups (parameter No. 6813) 16\r\n1 0 1/2 of maximum number of groups (parameter No. 6813) 8"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3210-a6ca-11ee-8a48-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 223, "chroma:document": "1 1 Maximum number of groups (parameter No. 6813) 4\r\nCAUTION\r\nAfter changing the setting of bits 0 (GS1) and 1 (GS2) of parameter No. 6800, \r\nre-register tool life management data by issuing the G10L3 (registration after \r\ndeletion of data for all groups).\r\nOtherwise, the newly set combination does not become valid."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3211-a6ca-11ee-8b4b-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 224, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 195 -\r\nNOTE\r\nThe total number of groups in the entire CNC system can be expanded to up to \r\n1024 groups, using the additional tool life management groups.\r\n- Tool number\r\nA tool number is specified with a T code. A number consisting of up to eight digits (99999999) can be \r\nspecified.\r\nNOTE\r\nThe maximum number of digits usable in the T code is specified in parameter\r\nNo. 3032.\r\n- Codes for specifying a tool offset value\r\nM"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3212-a6ca-11ee-8288-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 224, "chroma:document": "M\r\nCodes for specifying a tool offset value include an H code (for tool length offset) and a D code (for cutter \r\ncompensation). Numbers up to 999 (up to three digits long) can be registered as codes for specifying tool \r\noffset values. However, the number of registered codes must not exceed the number of tool offsets the \r\nCNC can use.\r\nNOTE\r\nIf codes for specifying tool offset values are not used, the registration of these \r\ncodes can be omitted.\r\nT"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3213-a6ca-11ee-9942-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 224, "chroma:document": "codes can be omitted.\r\nT\r\nIf the tool change type is the turret type (bit 3 (TCT) of parameter No. 5040 = 0), neither the H code nor \r\nD code is used to specify a tool offset value. The T code includes a compensation code. If the tool change \r\ntype is the ATC type (bit 3 (TCT) of parameter No. 5040 = 1), only the D code is used.\r\n- Tool life value\r\nA tool life value can be registered in terms of use duration or use count. The maximum value is as \r\nfollows:"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3214-a6ca-11ee-bdd8-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 224, "chroma:document": "follows:\r\nUp to 4300 minutes can be registered if duration specification is selected, or up to 65535 times can be \r\nregistered if use count specification is selected.\r\nWhen the tool life management B function is enabled, up to 100000 minutes (or 60000 minutes if the life \r\nis counted every 0.1 second) can be registered if duration specification is selected, or up to 99999999 \r\ntimes can be registered if use count specification is selected.\r\n- Arbitrary group number\r\nM"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3215-a6ca-11ee-acd6-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 224, "chroma:document": "- Arbitrary group number\r\nM\r\nIf a function for allowing specification of arbitrary group numbers is used (bit 5 (TGN) of parameter No. \r\n6802 = 1), an arbitrary group number can be specified with a T code to select a tool life management \r\ngroup.\r\nAn arbitrary group number ranging from 1 to 99999999 can be specified.\r\nT\r\nArbitrary group numbers can be used only if the tool change type is the ATC type (bit 3 (TCT) of \r\nparameter No. 5040 = 1)."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3216-a6ca-11ee-ab59-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 225, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 196 -\r\n- Remaining life setting\r\nBit 3 (GRP) of parameter No. 6802 is used to specify which value, a value set for each group or a \r\nparameter-set value (parameters Nos. 6844 and 6845), is to be used as the remaining life setting until a \r\nnew tool is selected.\r\nIf a value set for each group is used (bit 3 (GRP) of parameter No. 6802 = 1), the value is registered as \r\ntool life management data."}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3217-a6ca-11ee-8304-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 225, "chroma:document": "tool life management data.\r\nA value ranging from 1 to 100000 minutes (or 60000 minutes if the life is counted every 0.1 second) can \r\nbe specified if duration specification is selected, or a value up to 99999999 times can be specified if use \r\ncount specification is selected.\r\n10.5.2 Registering, Changing, and Deleting Tool Life Management \r\nData\r\nBy programming, tool life management data can be registered in the CNC, and registered tool life \r\nmanagement data can be changed or deleted.\r\nExplanation"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3218-a6ca-11ee-b0be-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 225, "chroma:document": "Explanation\r\nThe program format varies depending on the following four types of operation:\r\n- Registration after deletion of all groups\r\nAfter all registered tool life management data is deleted, programmed tool life management data is \r\nregistered.\r\n- Change of tool life management data\r\nTool life management data can be set for a group for which no tool life management data is registered, \r\nand already registered tool life management data can be changed.\r\n- Deletion of tool life management data"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff3219-a6ca-11ee-bc9a-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 225, "chroma:document": "Tool life management data can be deleted.\r\n- Setting of tool life count type\r\nA count type (use duration or use count) can be set for each group separately.\r\nFormat\r\n- Registration after deletion of all groups\r\nM\r\nFormat Meaning\r\nG10L3;\r\nP-L-;\r\nT-H-D-;\r\nT-H-D-;\r\n:\r\nP-L-;\r\nT-H-D-;\r\nT-H-D-;\r\n:\r\nG11;\r\nM02(M30);\r\nG10L3: Register data after deleting data of all groups.\r\nP-: Group number\r\nL-: Tool life value\r\nT-: Tool number\r\nH-: Code for specifying tool offset value (H code)"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff321a-a6ca-11ee-89d4-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 225, "chroma:document": "D-: Code for specifying tool offset value (D code)\r\nG11: End of registration"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff321b-a6ca-11ee-a2cc-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 226, "chroma:document": "B-64694EN/01 PROGRAMMING 10. TOOL FUNCTION (T FUNCTION)\r\n- 197 -\r\nT\r\nFormat Meaning\r\nG10L3;\r\nP-L-;\r\nT-(D-);\r\nT-(D-);\r\n:\r\nP-L-;\r\nT-(D-);\r\nT-(D-);\r\n:\r\nG11;\r\nM02(M30);\r\nG10L3:Register data after deleting data of all groups.\r\nP-: Group number\r\nL-: Tool life value\r\nT-: For turret type (bit 3 (TCT) of parameter No. 5040 = 0), tool number and tool \r\noffset number\r\nFor ATC type (bit 3 (TCT) of parameter No. 5040 = 1), tool number\r\nG11: End of registration"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff321c-a6ca-11ee-aed0-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 226, "chroma:document": "G11: End of registration\r\n(D-): For ATC type (bit 3 (TCT) of parameter No. 5040 = 1), code for specifying tool \r\noffset value\r\nNOTE\r\nNo H code is used even if the tool change type is the ATC type (bit 3 (TCT) of \r\nparameter No. 5040 = 1).\r\nIf more than one offset value is to be used for the same tool within one process, specify the command as \r\nshown below (on the assumption that tool offset numbers are two digits long).\r\nFormat Meaning\r\nG10L3;\r\nP-L-;\r\nT0101;\r\nT0102;\r\nT0103;\r\n:\r\nG11;\r\nM02(M30);"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff321d-a6ca-11ee-8fde-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 226, "chroma:document": "T0103;\r\n:\r\nG11;\r\nM02(M30);\r\nTool number 01, tool offset number 01\r\nTool number 01, tool offset number 02\r\nTool number 01, tool offset number 03\r\n- Change of tool life management data\r\nM\r\nFormat Meaning\r\nG10L3P1;\r\nP-L-;\r\nT-H-D-;\r\nT-H-D-;\r\n:\r\nP-L-;\r\nT-H-D-;\r\nT-H-D-;\r\n:\r\nG11;\r\nM02(M30);\r\nG10L3P1: Start changing group data.\r\nP-: Group number\r\nL-: Tool life value\r\nT-: Tool number\r\nH-: Code for specifying tool offset value (H code)\r\nD-: Code for specifying tool offset value (D code)\r\nG11: End of change of group"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff321e-a6ca-11ee-9714-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 227, "chroma:document": "10. TOOL FUNCTION (T FUNCTION) PROGRAMMING B-64694EN/01\r\n- 198 -\r\nT\r\nFormat Meaning\r\nG10L3P1;\r\nP-L-;\r\nT-(D-);\r\nT-(D-);\r\n:\r\nP-L-;\r\nT-(D-);\r\nT-(D-);\r\n:\r\nG11;\r\nM02(M30);\r\nG10L3P1: Start changing group data.\r\nP-: Group number\r\nL-: Tool life value\r\nT-: For turret type (bit 3 (TCT) of parameter No. 5040 = 0), tool number and tool \r\noffset number\r\nFor ATC type (bit 3 (TCT) of parameter No. 5040 = 1), tool number\r\nG11: End of registration"}


created_at: 2023-12-30 04:21:27
topic: persistent://default/default/22219b80-b5af-4069-8fb9-ba58e3536ad7
id: e2ff321f-a6ca-11ee-b504-f47b0952d52c
encoding: FLOAT32
metadata:
{"source": "E:\\AceMicromaticMIT\\data\\OITF\\B-64694EN_01(OPERATOR-COMMON).pdf", "page": 227, "chroma:document": "G11: End of registration\r\n(D-): For ATC type (bit 3 (TCT) of parameter No. 5040 = 1), code for specifying tool \r\noffset value\r\nNOTE\r\nNo H code is used even if the tool change type is the ATC type (bit 3 (TCT) of \r\nparameter No. 5040 = 1).\r\n- Deletion of tool life management data\r\nFormat Meaning\r\nG10L3P2;\r\nP-;\r\nP-;\r\nP-;\r\nP-;\r\n:\r\nG11;\r\nM02(M30);\r\nG10L3P2: Start deleting group data.\r\nP-: Group number\r\nG11: End of deletion\r\n- Setting of tool life count type\r\nFormat Meaning\r\nG10L3\r\n(or G10L3P1);\r\nP-L-Q-;"}


