reference will now be made in detail to implementations and embodiments , examples of which are illustrated in the accompanying drawings . wherever possible , the same reference numbers will be used throughout the drawings to refer to the same or like parts . [ 0014 ] fig1 a shows a conventional rgb stripe structure on panel 100 for an active matrix liquid crystal display ( amlcd ) having thin film transistors ( tfts ) 116 to activate individual colored subpixels — red 104 , green 106 and blue 108 subpixels respectively . as may be seen , a red , a green and a blue subpixel form a repeating group of subpixels 102 that comprise the panel . as also shown , each subpixel is connected to a column line ( each driven by a column driver 110 ) and a row line ( e . g . 112 and 114 ). in the field of amlcd panels , it is known to drive the panel with a dot inversion scheme to reduce crosstalk and flicker . fig1 a depicts one particular dot inversion scheme — i . e . 1 × 1 dot inversion — that is indicated by a “+” and a “−” polarity given in the center of each subpixel . each row line is typically connected to a gate ( not shown in fig1 a ) of tft 116 . image data — delivered via the column lines — are typically connected to the source of each tft . image data is written to the panel a row at a time and is given a polarity bias scheme as indicated herein as either odd (“ o ”) or even (“ e ”) schemes . as shown , row 112 is being written with odd polarity scheme at a given time while row 114 is being written with even polarity scheme at a next time . the polarities alternate odd and even schemes a row at a time in this 1 × 1 dot inversion scheme . [ 0016 ] fig1 b depicts another conventional rgb stripe panel having another dot inversion scheme — i . e . 1 × 2 dot inversion . here , the polarity scheme changes over the course of two rows — as opposed to every row , as in 1 × 1 dot inversion . in both dot inversion schemes , a few observations are noted : ( 1 ) in 1 × 1 dot inversion , every two physically adjacent subpixels ( in both the horizontal and vertical direction ) are of different polarity ; ( 2 ) in 1 × 2 dot inversion , every two physically adjacent subpixels in the horizontal direction are of different polarity ; ( 3 ) across any given row , each successive colored subpixel has an opposite polarity to its neighbor . thus , for example , two successive red subpixels along a row will be either (+,−) or (−,+). of course , in 1 × 1 dot inversion , two successive red subpixels along a column with have opposite polarity ; whereas in 1 × 2 dot inversion , each group of two successive red subpixels will have opposite polarity . this changing of polarity decreases noticeable visual effects that occur with particular images rendered upon an amlcd panel . [ 0017 ] fig2 shows a panel comprising a repeat subpixel grouping 202 , as further described in the &# 39 ; 353 application . as may be seen , repeat subpixel grouping 202 is an eight subpixel repeat group , comprising a checkerboard of red and blue subpixels with two columns of reduced - area green subpixels in between . if the standard 1 × 1 dot inversion scheme is applied to a panel comprising such a repeat grouping ( as shown in fig2 ), then it becomes apparent that the property described above for rgb striped panels ( namely , that successive colored pixels in a row and / or column have different polarities ) is now violated . this condition may cause a number of visual defects noticed on the panel — particularly when certain image patterns are displayed . this observation also occurs with other novel subpixel repeat grouping — for example , the subpixel repeat grouping in fig1 of the &# 39 ; 352 application — and other repeat groupings that are not an odd number of repeating subpixels across a row . thus , as the traditional rgb striped panels have three such repeating subpixels in its repeat group ( namely , r , g and b ), these traditional panels do not necessarily violate the above noted conditions . however , the repeat grouping of fig2 in the present application has four ( i . e . an even number ) of subpixels in its repeat group across a row ( e . g . r , g , b , and g ). it will be appreciated that the embodiments described herein are equally applicable to all such even modulus repeat groupings . [ 0018 ] fig3 is a panel having a novel subpixel repeating group that is a variation of the subpixel repeating group found in fig2 . the repeating group 302 is comprised of double red subpixels 304 and double blue subpixels 308 ( where each such red and blue subpixel could be sized , for one embodiment , approximately the same size as a standard rgb striped subpixel ), and a reduced green subpixel 306 ( which also could be sized , for one embodiment , approximately the same size as regular rgb striped subpixel ). each double red and double blue subpixels would ostensibly act as one larger red or blue subpixel , respectively ( such as shown in fig2 )— thus , one embodiment would have interconnects 314 coming from red and blue column lines 312 so that the image data would be shared by the double red and blue subpixels . one possible advantage of using regularly sized rgb striped subpixels as one embodiment is that existing tft backplanes may be employed — thereby reducing some manufacture re - design costs . another possible advantage is that — with the interconnects — a reduced number of drivers is needed to drive the entire panel . [ 0019 ] fig3 also shows one possible dot inversion scheme ( e . g . 1 × 2 ) implemented on the panel by driver chip 302 . as discussed above , the fact that same colored subpixels across a row have the same polarity may induce undesirable visual effects . additionally , the fact that adjacent columns ( as depicted in oval 316 ) have the same polarities may also create undesirable visual effects . [ 0020 ] fig4 shows one possible embodiment of a system that can remove or abate the visual defects above . in this case , an extra driver 404 ( which could be assigned from some of the column drivers saved by virtue of use of interconnects ) is assigned to one of the double red and blue subpixel columns . by occasionally assigning an extra driver to such a column across the panel , it can be seen that the same colored subpixels on either side of the extra driver ( e . g . 406 a and 406 b ) switch polarity — which will have the tendency to abate the visual effects induced as described above . how often to assign such drivers across a given panel design can be determined heuristically or empirically — clearly , there should be enough extra drivers to abate the visual effect ; but any more than that may not be needed . it will be appreciated that although a 1 × 2 dot inversion scheme is shown , other inversion schemes will also benefit from the techniques described herein . [ 0021 ] fig5 is yet another embodiment of a panel 500 having a novel subpixel repeating group . panel 500 comprises substantially the same repeat grouping shown in fig2 — but , occasionally , one of the red and blue subpixel columns is split ( as shown in 508 ) and an extra driver from the driver chip 502 is assigned to the split column . the effect of this split column is similar to the effect as produced in fig4 above . an advantage of this embodiment is that the capacitance due to the column line that serves as the load to the driver is substantially reduced , thereby reducing the power required to drive the column . with the combined use of full size and smaller sized subpixels though , there might be an unintended consequence of off - axis viewing angle differences . such viewing angle differences might be compensated for , as described in several co - pending applications that are incorporated above and in the following paragraphs . another embodiment that may address viewing angles is a technique whereby the viewing angle characteristics of the larger pixel are designed to match those of the smaller pixel . in fig7 a , 7b and 7 c , this is accomplished by creating one large pixel , comprised of two small illuminating areas , each of which has the same viewing angle characteristics of the small size pixel . in fig7 a , each illuminating area is driven by tft 706 . tft 706 is connected to the column line 702 and the gate line 704 . in the embodiment described in fig7 b , the output of tft 706 a drives a first illuminating area , and tft 706 b drives a second illuminating area . in fig7 c , the electrode 708 is connected directly to the electrode 710 via a plurality of interconnects 712 in one or more locations . this embodiment allows greater aperture ratio . the embodiment of fig7 a , 7b , and 7 c are shown for a standard tft layout . it should appreciated that the electrode patterns for some viewing angle technologies — such as in plane switching — are different . these concepts will still apply to all viewing angle technologies . yet another embodiment using additional drivers is depicted in fig6 . panel 600 could be comprising the subpixel repeating group as shown in fig2 — or any other suitable even - modulo grouping . it is appreciated that this technique could be applied with or without double or split subpixels . extra driver 602 is connected to a column line 602 — which could be a “ dummy ” line — i . e . not connected to any tft or the like . as column line 602 is being driven with opposite polarity as adjacent column line 606 , line 602 is providing an effective shield against the polarity problems and their associated visual effects as noted above . additional shielding could be provided by having the data on line 602 as the inverse of the data provided on line 606 . as there may be some impact on aperture ratio due to the extra column line , it may be desired to compensate for this impact . it is appreciated that this techniques can be applied in combination with other techniques described herein and that all of the techniques herein may be applied in combination with other techniques in the related and co - pending cases noted above . as it is known upon manufacture of the panel itself , it is possible to compensate for any undesirable visual effect using different techniques . as described in copending and commonly assigned patent application , entitled “ system and method for compensating for visual effects upon panels have non - standard dot inversion schemes ” and incorporated herein by reference , there are techniques that may be employed to reduce or possibly eliminate for these visual effects . for example , a noise pattern may be introduced to the potential effected columns such that known or estimated darkness or brightness produce by such columns are adjusted . for example , if the column in question is slightly darker than those surrounding columns than the darker column may be adjusted to be slightly more on than its neighbors , slightly more on than its neighbors .