CN105093631A - Pixel structure, array substrate, display device and sub-pixel rendering method - Google Patents

Pixel structure, array substrate, display device and sub-pixel rendering method Download PDF

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Publication number
CN105093631A
CN105093631A CN201510540277.8A CN201510540277A CN105093631A CN 105093631 A CN105093631 A CN 105093631A CN 201510540277 A CN201510540277 A CN 201510540277A CN 105093631 A CN105093631 A CN 105093631A
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Prior art keywords
pixel
sub
array
color
brightness value
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CN105093631B (en
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雷萌
周婷
沈柏平
张沼栋
张少君
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Tianma Microelectronics Co Ltd
Xiamen Tianma Microelectronics Co Ltd
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Tianma Microelectronics Co Ltd
Xiamen Tianma Microelectronics Co Ltd
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    • GPHYSICS
    • G02OPTICS
    • G02FOPTICAL DEVICES OR ARRANGEMENTS FOR THE CONTROL OF LIGHT BY MODIFICATION OF THE OPTICAL PROPERTIES OF THE MEDIA OF THE ELEMENTS INVOLVED THEREIN; NON-LINEAR OPTICS; FREQUENCY-CHANGING OF LIGHT; OPTICAL LOGIC ELEMENTS; OPTICAL ANALOGUE/DIGITAL CONVERTERS
    • G02F1/00Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics
    • G02F1/01Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour 
    • G02F1/13Devices or arrangements for the control of the intensity, colour, phase, polarisation or direction of light arriving from an independent light source, e.g. switching, gating or modulating; Non-linear optics for the control of the intensity, phase, polarisation or colour  based on liquid crystals, e.g. single liquid crystal display cells
    • G02F1/133Constructional arrangements; Operation of liquid crystal cells; Circuit arrangements
    • G02F1/1333Constructional arrangements; Manufacturing methods

Abstract

The invention discloses a pixel structure, an array substrate, a display device and a sub-pixel rendering method. The pixel structure comprises a pixel array. The pixel array comprises first pixel sequences and second pixel sequences which are arranged at intervals in the first direction. The first pixel sequences comprise first sub-pixels arranged repeatedly in the second direction; the second pixel sequences comprise two different-color sub-pixels repeatedly arranged in an alternating mode in the second direction. The first direction is the horizontal or vertical direction. The second direction is perpendicular to the first direction. According to the scheme, the sub-pixels with the highest brightness in the pixel array can be distributed uniformly, so that it is ensured that the brightness of the whole pixel array is uniform, and the observation effects generated when the pixel array is observed from all view angles are uniform.

Description

Dot structure, array base palte, display device and sub-pixel rendering intent
Technical field
The disclosure relates generally to display technique, is specifically related to sub-pixel Rendering, particularly relates to a kind of dot structure, array base palte, display device and sub-pixel rendering intent.
Background technology
In current display product, along with the continuous pursuit to high PPI (PixelperInch, per inch pixel), transmitance will certainly be caused to be lost.In order to synchronously realize high PPI and high permeability, W (White) R (Red) G (Green) B (Blue) design that significantly can promote transmitance comes into one's own gradually.
The size corresponding relation of tradition rgb pixel and traditional WRGB pixel as shown in Figure 1.Each rgb pixel 110 is measure-alike with each WRGB pixel 120.Specifically, by the size compression by R, G, B tri-sub-pixels in a rgb pixel 110, and add W sub-pixel, form WRGB pixel 120.
Traditional WRGB pel array 200 as shown in Figure 2.WRGB pel array comprises multiple pixel 210 along data line direction repeated arrangement.Wherein, each pixel 210 includes equal-sized B sub-pixel 211, G sub-pixel 212, R sub-pixel 213 and W sub-pixel 214.The shape of each sub-pixel can be such as rectangle as shown in Figure 2.After adopting the WRGB pel array shown in Fig. 2, compared with rgb pixel array, the transmitance of panel can increase about 70%.
But, adopt WRGB pel array as shown in Figure 2, at least there are following three problems:
1, sub-pixel quantity increases by 1/3, and pel spacing reduces, and data line quantity increases, and causes technology difficulty to increase;
2, W sub-pixel is along data line direction (also i.e. vertical direction shown in Fig. 2) arrangement, because the transmitance of W sub-pixel is compared with the transmitance height about 50% of RGB sub-pixel, so easily see bright rays;
3, for each pixel, Luminance Distribution should be gathered to center as far as possible, and in other words, the optimum position at brightness center is in the geometric center of each pixel.And in WRGB pel array as shown in Figure 2, because W sub-pixel is the sub-pixel that in a pixel, brightness is the highest, but W sub-pixel is not in the geometric center of a pixel, so, cause the Luminance Distribution of WRGB pel array as shown in Figure 2 can be biased on one side, when showing black and white border condition, wherein a lateral boundaries is sharper keen than opposite side border.
Summary of the invention
In view of above-mentioned defect of the prior art or deficiency, expect to provide a kind of dot structure, array base palte, display device and sub-pixel rendering intent, be intended to solve at least one problem as above.
First aspect, the embodiment of the present application provides a kind of dot structure, comprises a pel array, and wherein, pel array comprises along spaced first pixel sequence of first direction and the second pixel sequence; First pixel sequence comprises the first sub-pixel along second direction repeated arrangement; Described second pixel sequence comprises the second sub-pixel and the 3rd sub-pixel that replace repeated arrangement along second direction; Be alternatively set as the second color and the 3rd color along 2 second sub-pixels that first direction is adjacent, and be alternatively set as the second color and the 3rd color along 2 second sub-pixels that second direction is adjacent; 3rd sub-pixel has the 4th color; Second direction is vertical with first direction.
Second aspect, the embodiment of the present application additionally provides a kind of array base palte.
The third aspect, the embodiment of the present application additionally provides a kind of display device.
Fourth aspect, the embodiment of the present application additionally provides a sub pixel rendering intent, comprising: the brightness value getting each sub-pixel in original pixel array forms original brightness array, and original pixel array comprises the three-color pixel group of multiple matrix arrangement; The brightness value obtaining each sub-pixel in intermediate pixel array based on original brightness array forms intermediate luminance array, and intermediate pixel array comprises four color pixel groups of multiple matrix arrangement, four color pixel groups and three-color pixel group one_to_one corresponding; Based on the brightness center of original pixel array, from the pel array of dot structure, determine display unit; And based on the brightness value of each sub-pixel in intermediate pixel array, determine the brightness value of each sub-pixel in display unit.
The dot structure that the embodiment of the present application provides, array base palte, display device and sub-pixel rendering intent, the sub-pixel in pel array with maximum brightness can be made to be uniformly distributed, thus ensure that the brightness uniformity of whole pel array, and consistent from observing effect during each view.
In addition, in some embodiments of the application, the highest sub-pixel of brightness can be made to be uniformly distributed in each display unit, ensure that the Luminance Distribution in each display unit is assembled to its geometric center.
In addition, the area of the single sub-pixel that in some embodiments of the application, shared by sub-pixel, can reduce the quantity of sub-pixel, increases, thus the data line saving 1/3, increase sub-pixel pitch, reduces technology difficulty.
Accompanying drawing explanation
By reading the detailed description done non-limiting example done with reference to the following drawings, the other features, objects and advantages of the application will become more obvious:
Fig. 1 shows the size corresponding relation of traditional rgb pixel and traditional WRGB pixel;
Fig. 2 shows the pixel arrangement mode of traditional WRGB pel array;
Fig. 3 shows the schematic diagram according to the pel array in the dot structure of the application's embodiment;
Fig. 4 show first sub-pixel in the pel array of Fig. 3 and with the schematic diagram of this first sub-pixel at the concrete size relationship of adjacent the second sub-pixel of first direction, the 3rd sub-pixel;
Fig. 5 shows the schematic diagram of the pel array in the dot structure of another implementation of the embodiment in Fig. 3;
Fig. 6 shows the schematic diagram according to the pel array in the dot structure of another embodiment of the application;
Fig. 7 shows the schematic diagram according to the pel array in the dot structure of the application's embodiment again;
Fig. 8 shows the indicative flowchart of the sub-pixel rendering intent of the embodiment of the present application;
Fig. 9 shows the schematic diagram that the structure of each display unit in the pel array of the dot structure of the embodiment of the present application and sub-pixel share relation;
The schematic diagram of each display unit that the pel array that Figure 10 shows the dot structure of the application comprises.
Embodiment
Below in conjunction with drawings and Examples, the application is described in further detail.Be understandable that, specific embodiment described herein is only for explaining related invention, but not the restriction to this invention.It also should be noted that, for convenience of description, illustrate only in accompanying drawing and invent relevant part.
It should be noted that, when not conflicting, the embodiment in the application and the feature in embodiment can combine mutually.Below with reference to the accompanying drawings and describe the application in detail in conjunction with the embodiments.
Shown in Figure 3, be the schematic diagram 300 according to the pel array in the dot structure of the application's embodiment.
The dot structure of the present embodiment, comprises pel array as shown in Figure 3.Wherein, pel array comprises along spaced first pixel sequence 31 and the second pixel sequence 32 of first direction.
The first sub-pixel 311, first sub-pixel 311 that first pixel sequence 31 comprises along second direction repeated arrangement has the first color.
Second pixel sequence 32 comprises the second sub-pixel 322 and the 3rd sub-pixel 323 that replace repeated arrangement along second direction.
Two second sub-pixels 322,325 adjacent along first direction are alternatively set as the second color and the 3rd color, and are alternatively set as the second color and the 3rd color along two the second sub-pixels 322,324 that second direction is adjacent.It should be noted that, " adjacent " herein does not refer to that two the second sub-pixels 322,324 are interconnected, but represents the second nearest sub-pixel.
3rd sub-pixel 323 has the 4th color.And second direction is vertical with first direction.
It should be noted that, in the description after Fig. 3 and the application, same shape represents same class sub-pixel, and same shade represents same color.In figure 3, each first sub-pixel 311 has identical color; Any two adjacent the second sub-pixels (322 and 324,322 and 325) have mutually different color; Each 3rd sub-pixel 323 has identical color.
In addition, the shape of each sub-pixel shown in Fig. 3 is only schematic.In actual application, the shape of each sub-pixel can be designed as the case may be to meet concrete demand.
In addition, although the first direction shown in Fig. 3 is vertical direction, second direction is horizontal direction.But horizontal direction and vertical direction are only schematic, as long as first direction and second direction meet orthogonal relation, within the protection domain being just considered as fall into the present embodiment.
Adopt the pel array of sub-pixel arrangement as shown in Figure 3, can ensure that the 3rd sub-pixel is uniformly distributed in this pel array, that is, distance between any one the 3rd sub-pixel and the 3rd sub-pixel adjacent in a first direction with the 3rd sub-pixel, equals the distance between this any one the 3rd sub-pixel and the 3rd sub-pixel adjacent in a second direction with the 3rd sub-pixel.
So, if when the 3rd sub-pixel 323 is the sub-pixel that in pel array, transmitance is the highest, adopt the display of such pel array, when showing, brightness uniformity, be not easy to occur bright rays, display effect is better.
In some implementations, the first color can be green.Second color and the 3rd color different, and be red or blueness wherein one.
So, because any two adjacent the second sub-pixels (322 and 324,322 and 325) have mutually different color, second color and the 3rd color also evenly distributed in pel array, can ensure to comprise the brightness uniformity of display when showing of this pel array further.
In some implementations, the color of the 3rd sub-pixel 323 can be white or yellow.Because white, yellow brightness is high, is evenly arranged at the 3rd sub-pixel place and can makes brightness uniformity.
Here it should be noted that, in same pel array, all 3rd sub-pixels 322 can be white, or, all 3rd sub-pixels 323 can be yellow, or, in some implementations, can also not only comprise the first sub-pixel of white but also comprise the first yellow sub-pixel in same pel array.
Fig. 4 schematically shows in Fig. 3 embodiment, first sub-pixel comprised in the dotted line frame shown in Reference numeral 33 and with the concrete size relationship of this first sub-pixel at adjacent the second sub-pixel of first direction, the 3rd sub-pixel.
As shown in Figure 4, the shape of the first sub-pixel 410 can be rectangle, and its long edge second direction extends.The shape of the 3rd sub-pixel 430 also can be rectangle, and its long edge first direction extends.In some implementations, the length of the minor face of the 3rd sub-pixel 430 can be equal with the length of the first sub-pixel 410 minor face, such as, is x.
Continue with reference to shown in Fig. 4, the shape of the second sub-pixel 420 can be square.The length sum of the foursquare length of side and the first sub-pixel 410 minor face equals the length on the first long limit of sub-pixel 410, and the length on the long limit of the 3rd sub-pixel 430 can equal the length of side of the second sub-pixel 420.And the length on the long limit of the first sub-pixel 410 is four times of the length of the minor face of the first sub-pixel 410.
Such as, the length of side of the second sub-pixel 420 can be 3x, and the length of the first sub-pixel 410 minor face is x, and the length on the long limit of the first sub-pixel 410 is 4x.
In addition as shown in Figure 4, the limit of a coincidence is all comprised between each sub-pixel, in other words, first sub-pixel 410 has a limit overlapped with the second sub-pixel 420, second sub-pixel 420 has a limit overlapped with the 3rd sub-pixel 430, and the first sub-pixel 410 has a limit overlapped with the 3rd sub-pixel 430.
In addition, a minor face of the first sub-pixel 410 can be spliced to form a line segment extended along first direction with a limit extended along first direction of the second sub-pixel 420.Another article of minor face of the first sub-pixel 410 can be spliced to form a line segment extended along first direction with one article of long limit of the 3rd sub-pixel 430.
Fig. 5 shows the schematic diagram 500 of the pel array in the dot structure of an implementation of the embodiment in Fig. 3.
Similar with implementation as shown in Figure 3 in the present embodiment, in the implementation shown in Fig. 5, comprise the first pixel sequence 51 and the second pixel sequence 52 equally.And the first sub-pixel 511, first sub-pixel 511 that the first pixel sequence 51 comprises along second direction repeated arrangement has the first color.Second pixel sequence 52 comprises the second sub-pixel 522 and the 3rd sub-pixel 523 that replace repeated arrangement along second direction.Two second sub-pixels 522,525 adjacent along first direction are alternatively set as the second color and the 3rd color, and are alternatively set as the second color and the 3rd color along two the second sub-pixels 522,524 that second direction is adjacent.3rd sub-pixel 523 has the 4th color.And second direction is vertical with first direction.
Comprise with the implementation difference of Fig. 3, in the second pixel sequence 52, the second sub-pixel 522 replacing repeated arrangement along second direction is contrary with the 3rd sub-pixel 323 position with the second sub-pixel 322 in figure tri-with the 3rd sub-pixel 523.In other words, when first direction is the direction that level extends from left to right, and when second direction is the direction vertically extended from top to bottom, in Fig. 5, the most left sub-pixel of each second pixel sequence 52 is the 3rd sub-pixel 523, second left sub-pixel is the second sub-pixel 522, by that analogy.
Shown in Figure 6, be the schematic diagram 600 according to the pel array in the dot structure of the application one embodiment.
The pel array that pel array in embodiment shown in Fig. 6 obtains after can being considered as being rotated counterclockwise 90 ° with the pel array in the embodiment shown in Fig. 3.In other words, the first direction in embodiment illustrated in fig. 6 with embodiment illustrated in fig. 3 in first direction differ 90 °, and embodiment illustrated in fig. 6 in second direction with embodiment illustrated in fig. 3 in second direction differ 90 °.
Shown in Figure 7, be the schematic diagram 700 according to the pel array in the dot structure of the application's embodiment again.
Embodiment shown in embodiment shown in Fig. 7 and Fig. 3 is similar, comprises the first pixel sequence 71 and the second pixel sequence 72 equally.And the first sub-pixel 711, first sub-pixel 711 that the first pixel sequence 71 comprises along second direction repeated arrangement has the first color.Second pixel sequence 72 comprises the second sub-pixel 722 and the 3rd sub-pixel 723 that replace repeated arrangement along second direction.Two second sub-pixels 722,725 adjacent along first direction are alternatively set as the second color and the 3rd color, and are alternatively set as the second color and the 3rd color along 2 second sub-pixels 722,724 that second direction is adjacent.3rd sub-pixel 723 has the 4th color.And second direction is vertical with first direction.
Comprise with the embodiment difference shown in Fig. 3, in the embodiment shown in fig. 7, any and the second sub-pixel that the first sub-pixel 711 extends along first direction along first direction extend any while the line segment extended along first direction can not be spliced to form.In addition, second sub-pixel 722 wherein on one side only part and the first sub-pixel 711 wherein while overlap, such as, when the shape of the second sub-pixel 722 is square, the length of the two part overlapped is greater than zero and is less than this foursquare length of side, such as, the length of intersection can be the half of the square length of side.
Correspondingly, the first sub-pixel 711 any and the 3rd sub-pixel 723 extended along first direction along first direction extend any while the line segment extended along first direction can not be spliced to form.
Disclosed herein as well is array basal plate.It comprises sweep trace, insulate with sweep trace crossing data line, and dot structure as above.
In these array base paltes, such as, the bearing of trend of sweep trace and the bearing of trend of data line mutually vertical.And the direction that first direction as above can extend for the direction of sweep trace extension or data line.
Disclosed herein as well is a kind of display device, comprise array base palte as above and the counter substrate opposite disposed with array base palte.
Shown in Figure 8, be the indicative flowchart 800 of the sub-pixel rendering intent of the embodiment of the present application.Each sub-pixel that the sub-pixel rendering intent of the present embodiment can be used for comprising in the pel array to dot structure as above carries out brightness and plays up.
Specifically, in step 810, obtain the brightness value of each sub-pixel in original pixel array, original pixel array comprises the three-color pixel group of multiple matrix arrangement.In some implementations, such as, original pixel array can comprise the rgb pixel group of multiple matrix arrangement.After the brightness value obtaining each sub-pixel in original pixel array, an original brightness array [X corresponding with the brightness value of sub-pixel each in original pixel array can be formed ij' Y ij' Z ij'] m × n, wherein, each element X in original brightness array ij' Y ij' Z ij' in X ij', Y ij', Z ij' representing the brightness value of one of them sub-pixel in each three-color pixel group respectively, m is the line number of original brightness array, and n is the columns of original brightness array.
Then, in step 820, the brightness value obtaining each sub-pixel in intermediate pixel array based on original array forms intermediate luminance array, and intermediate pixel array comprises four color pixel groups, four color pixel groups and the three-color pixel group one_to_one corresponding of the arrangement of multiple matrix.
Such as, intermediate pixel array can comprise the RGBW pixel groups of multiple matrix arrangement.After the brightness value obtaining each sub-pixel in intermediate pixel array, an intermediate luminance array [X corresponding with the brightness value of each sub-pixel in intermediate pixel array can be formed ijy ijz ijv ij] m × n, wherein, each element X in intermediate luminance array ijy ijz ijv ijin X ij, Y ij, Z ij,v ijrepresent the brightness value of one of them sub-pixel in each four look color pixel groups respectively, m is the line number of original brightness array, and n is the columns of original brightness array.In addition, the X in original brightness array ij' with the X of intermediate luminance array ijcorresponding sub-pixel has same color, the Y in original brightness array ij' with the Y of intermediate luminance array ijcorresponding sub-pixel has same color, and the Z in original brightness array ij' with the Z of intermediate luminance array ijcorresponding sub-pixel has same color.
Then, in step 830, based on the brightness center of original pixel array, from the pel array of dot structure as above, display unit is determined.
In each pixel groups of original pixel array, all there is a brightness center.Such as, if original pixels group is rgb pixel group, so, because the brightness of G sub-pixel is higher than R sub-pixel and B sub-pixel, the brightness of this pixel groups is centrally located at the geometric center of G sub-pixel.In order to ensure that the display effect of dot structure disclosed in the embodiment of the present application is identical with the display effect with RealRGB (true RGB) pel array, the pel array of dot structure disclosed in the embodiment of the present application, should have the brightness center identical with RealRGB pel array.In other words, the quantity at the brightness center that the pel array of dot structure disclosed in the embodiment of the present application has and arrangement mode are all identical with arrangement mode with the quantity at the brightness center of RealRGB pel array.In other words, when original pixel array comprises m × n brightness center O ' ijtime, the pel array in the dot structure of the present embodiment comprises m × n brightness center O ij.
Determine brightness center in pel array after, just can choose display unit based on the position at this brightness center.Here, display unit has different physical significances from pixel cell each in RealRGB.In RealRGB, be separate between each pixel cell.And between each adjacent display cell, there is the sub-pixel that a part shares mutually.
Such as, as shown in Figure 9, the schematic diagram 900 that the structure of each display unit of pel array in the pel array of the embodiment of the present application and sub-pixel share relation is given.
In fig .9, the empty frame of each broken line closed all represents a display unit.In other words, each display unit comprises the 3rd sub-pixel, two adjacent with the 4th sub-pixel in a first direction the first sub-pixels, and two adjacent with the 3rd sub-pixel in a second direction the second sub-pixels.Two display units adjacent along first direction share first sub-pixel, and two display units adjacent along second direction share second sub-pixel.
In addition, each display unit all comprises a brightness center O ij, brightness is centrally located at the geometric center of the 3rd sub-pixel of this display unit.
As shown in Figure 9, two display units 910,930 adjacent along first direction share one first sub-pixel 91, and two display units 910,920 adjacent along second direction share one second sub-pixel 92.
Here, it should be noted that, the structure of the display unit shown in Fig. 9 and shared relation are only schematic, in actual applications, can choose the structure of display unit according to real needs and determine the shared relation between each display unit.
In addition, although some of them sub-pixel is divided into several part by the broken line in Fig. 9, which is only schematic.In actual applications, each sub-pixel that each display unit comprises is whole sub-pixel, but not a wherein part for certain sub-pixel.
Referring back to Fig. 8, in step 840, based on the brightness value of each sub-pixel in intermediate pixel array, determine the brightness value of each sub-pixel in display unit.
Due in each display unit that the pel array of the dot structure of the embodiment of the present application comprises, each adjacent display unit has the sub-pixel that a part shares, thus in order to reach the display effect of the RealRGB as original pixel array, need the sub-pixel for each display unit to carry out luminance distribution (namely sub-pixel is played up), thus reach the display effect of RealRGB.
Such as, first original brightness array [X can be passed through ij' Y ij' Z ij'] m × nin, the brightness value of the sub-pixel that each pixel cell comprises, calculating intermediate luminance array is [X ijy ijz ijv ij] m × nin the brightness value of sub-pixel that comprises of each pixel cell.
Such as, following computing method can be adopted:
X i,j=X i,j’-W i,j’;
Y i,j=Y i,j’-W i,j’;
Z i,j=Z i,j’-W i,j’;
V i,j=W i,j’;
W i,j=min(X i,j’,Y i,j’,Z i,j’);
W ij’=(2 k-1)×[W ij/(2 k-1)] α
Wherein, i=1,2 ..., m, j=1,2 ..., n, X i,j, Y i,j, Z i,jand V i,jbe respectively the brightness value of each sub-pixel in the pixel of the i-th row jth row in intermediate pixel array, X i,j', Y i,j' and Z i,j' be respectively the brightness value of each sub-pixel corresponding with each sub-pixel in intermediate pixel array in original pixel array; X i,jwith X i,j' color is identical, Y i,jwith Y i,j' color is identical, and Z i,jwith Z i,j' color is identical.
K is the progression of the GTG of display device, a>1.
Such as, in some implementations, a=2.5 can be chosen, k=8.
In these implementations, V i,jbrightness value and X i,j', Y i,j' and Z i,j' brightness value in minimum one positive correlation.In addition, due to a > 1, when k value is fixing, V i,jbrightness value and X i,j', Y i,j' and Z i,j' brightness value in minimum one be nonlinear positive correlation.Compared with linear positive correlation (i.e. the situation of a=1), during a=2.5, V can be made i,jvalue at X i,j', Y i,j' and Z i,j' less time less, and at X i,j', Y i,j' and Z i,j' larger time larger, thus make display comparison degree larger, display effect is better.
In some implementations, in order to reach the display effect similar with RealRGB, the pel array of the dot structure of the embodiment of the present application can comprise m × n display unit, and each display unit all has a brightness center.The composition of each display unit as shown in Figure 10.
In the display unit 1000 shown in Figure 10, comprise the 3rd sub-pixel 103, and two first sub-pixels 1011,1012 adjacent with the 3rd sub-pixel in a first direction, and two adjacent with the 3rd sub-pixel in a second direction the second sub-pixels 1021,1022.Two display units adjacent along first direction share first sub-pixel, and two display units adjacent along second direction share second sub-pixel.
In some implementations, suppose that the display unit shown in Figure 10 is the display unit of the i-th row jth row in pel array, and its brightness center O ijposition and original pixel array in the brightness center O ' of pixel cell that arranges of the i-th row jth ijcorresponding.
In these implementations, step 840 can also specifically comprise:
The brightness K=X of the first sub-pixel 1011 that the display unit arranged with the i-th-1 row jth in this display unit shares i-1, j/ 2+X i,j/ 2, wherein, X i-1, jfor X i-1, jy i-1, jz i-1, jv i-1, jin the brightness value of the sub-pixel homochromy with this first sub-pixel 1011, X i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this first sub-pixel 1011.
The brightness value T=X of the first sub-pixel 1012 that the display unit arranged with the i-th+1 row jth in this display unit shares i,j/ 2+X i+1, j/ 2, wherein, X i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this first sub-pixel 1012, X i+1, jfor X i+1, jy i+1, jz i+1, jv i+1, jin the brightness value of the sub-pixel homochromy with this first sub-pixel 1012.
The brightness value O=Y of the second sub-pixel 1021 that the display unit arranged with the i-th row jth-1 in this display unit shares i, j-1/ 2+Y i,j/ 2, wherein, Y i, j-1for X i, j-1y i, j-1z i, j-1v i, j-1in the brightness value of the sub-pixel homochromy with this second sub-pixel 1021, Y i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this second sub-pixel 1021.
The brightness value Q=Z of the second sub-pixel 1022 shared with the i-th row jth+1 in this display unit i,j/ 2+Z i, j+1/ 2, wherein, Z i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this second sub-pixel 1022, Z i, j+1for X i, j+1y i, j+1z i, j+1v i, j+1in the brightness value of the sub-pixel homochromy with this second sub-pixel 1022.
The brightness value P=V of the 3rd sub-pixel 103 in this display unit i,j=W ' ij.
More than describe and be only the preferred embodiment of the application and the explanation to institute's application technology principle.Those skilled in the art are to be understood that, invention scope involved in the application, be not limited to the technical scheme of the particular combination of above-mentioned technical characteristic, also should be encompassed in when not departing from described inventive concept, other technical scheme of being carried out combination in any by above-mentioned technical characteristic or its equivalent feature and being formed simultaneously.The technical characteristic that such as, disclosed in above-mentioned feature and the application (but being not limited to) has similar functions is replaced mutually and the technical scheme formed.

Claims (16)

1. a dot structure, comprises a pel array, it is characterized in that, described pel array comprises along spaced first pixel sequence of first direction and the second pixel sequence;
Described first pixel sequence comprises the first sub-pixel along second direction repeated arrangement, and described first sub-pixel has the first color;
Described second pixel sequence comprises the second sub-pixel and the 3rd sub-pixel that replace repeated arrangement along second direction;
Be alternatively set as the second color and the 3rd color along two the second sub-pixels that described first direction is adjacent, and be alternatively set as the second color and the 3rd color along two the second sub-pixels that described second direction is adjacent;
Described 3rd sub-pixel has the 4th color;
Described second direction is vertical with described first direction.
2. dot structure according to claim 1, is characterized in that:
The shape of described first sub-pixel is rectangle, and second direction described in the long edge of described first sub-pixel extends.
3. dot structure according to claim 2, is characterized in that:
The shape of described 3rd sub-pixel is rectangle, and first direction described in the long edge of described 3rd sub-pixel extends;
The length of the minor face of described 3rd sub-pixel is equal with the length of described first sub-pixel minor face.
4. dot structure according to claim 3, is characterized in that:
The shape of described second sub-pixel is square;
The length sum of the described foursquare length of side and described first sub-pixel minor face equals the length on the described first long limit of sub-pixel;
The length on the long limit of described 3rd sub-pixel equals the described foursquare length of side.
5. dot structure according to claim 4, is characterized in that:
The length on the long limit of described first sub-pixel is four times of the length of the minor face of described first sub-pixel.
6. the dot structure according to claim 1-5 any one, is characterized in that:
Described first color is green;
Described second color and described 3rd color different, and be red or blueness wherein one.
7. dot structure according to claim 6, is characterized in that:
Described 4th color is white or yellow.
8. an array base palte, comprises sweep trace, insulate with described sweep trace crossing data line and the dot structure as described in any one of claim 1 to 7.
9. a display device, comprises array base palte as claimed in claim 8 and the counter substrate opposite disposed with described array base palte.
10. a sub pixel rendering intent, is characterized in that:
The brightness value obtaining each sub-pixel in original pixel array forms original brightness array, and described original pixel array comprises the three-color pixel group of multiple matrix arrangement,
The brightness value obtaining each sub-pixel in intermediate pixel array based on described original brightness array forms intermediate luminance array, and described intermediate pixel array comprises four color pixel groups of multiple matrix arrangement, described four color pixel groups and described three-color pixel group one_to_one corresponding;
Based on the brightness center of described original pixel array, from the pel array the dot structure of display device as claimed in claim 9, determine display unit; And
Based on the brightness value of each sub-pixel in described intermediate pixel array, determine the brightness value of each sub-pixel in described display unit.
11. methods according to claim 10, is characterized in that:
Described original brightness array is [X ij' Y ij' Z ij'] m × n, m, n are respectively line number and the columns of described original pixel array;
Described intermediate luminance array is [X ijy ijz ijv ij] m × n;
X i,j=X i,j’-W i,j’;
Y i,j=Y i,j’-W i,j’;
Z i,j=Z i,j’-W i,j’;
V i,j=W i,j’;
W i,j=min(X i,j’,Y i,j’,Z i,j’);
W ij'=(2 k-1)×[W ij/(2 k-1)] a
Wherein, i=1,2 ..., m, j=1,2 ..., n, X i,j, Y i,j, Z i,jand V i,jbe respectively the brightness value of each sub-pixel in the pixel of the i-th row jth row in described intermediate pixel array, X i,j', Y i,j' and Z i,j' be respectively the brightness value of each sub-pixel corresponding with each sub-pixel in described intermediate pixel array in described original pixel array; X i,jwith X i,j' color is identical, Y i,jwith Y i,j' color is identical, and Z i,jwith Z i,j' color is identical;
K is the progression of the GTG of described display device, a>1.
12. methods according to claim 11, is characterized in that, a=2.5.
13. methods according to claim 11, is characterized in that, k=8.
14. methods according to claim 11-13 any one, is characterized in that:
The pel array of described display device comprises m × n display unit;
Each described display unit comprises the 3rd sub-pixel, and two adjacent with described 3rd sub-pixel in said first direction the first sub-pixels, and two adjacent with described 3rd sub-pixel in this second direction the second sub-pixels;
Two display units adjacent along first direction share first sub-pixel, and two display units adjacent along second direction share second sub-pixel.
15. methods according to claim 14, is characterized in that:
Described original brightness array [X ij' Y ij' Z ij'] m × nin each element X ij' Y ij' Z ij' include a brightness center O i,j;
Each described display unit has and the brightness center O ' in described original pixel array i,jbrightness center O one to one ij.
16. methods according to claim 15, wherein, the described brightness value based on each sub-pixel in described intermediate pixel array, determine that the brightness value of each sub-pixel in described display unit comprises:
The brightness K=X of the first sub-pixel that the display unit arranged with the i-th-1 row jth in the i-th row jth row display unit shares i-1, j/ 2+X i,j/ 2, wherein, X i-1, jfor X i-1, jy i-1, jz i-1, jv i-1, jin the brightness value of the sub-pixel homochromy with this first sub-pixel, X i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this first sub-pixel.
The brightness value T=X of the first sub-pixel that the display unit arranged with the i-th+1 row jth in the i-th row jth row display unit shares i,j/ 2+X i+1, j/ 2, wherein, X i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this first sub-pixel, X i+1, jfor X i+1, jy i+1, jz i+1, jv i+1, jin the brightness value of the sub-pixel homochromy with this first sub-pixel.
I-th row jth arranges the brightness value O=Y of the second sub-pixel that the display unit that arranges with the i-th row jth-1 in this display unit shares i, j-1/ 2+Y i,j/ 2, wherein, Y i, j-1for X i, j-1y i, j-1z i, j-1v i, j-1in the brightness value of the sub-pixel homochromy with this second sub-pixel, Y i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this second sub-pixel.
The brightness value Q=Z of the second sub-pixel shared with the i-th row jth+1 in the i-th row jth row display unit i,j/ 2+Z i, j+1/ 2, wherein, Z i,jfor X i,jy i,jz i,jv i,jin the brightness value of the sub-pixel homochromy with this second sub-pixel, Z i, j+1for X i, j+1y i, j+1z i, j+1v i, j+1in the brightness value of the sub-pixel homochromy with this second sub-pixel;
The brightness value P=V of the 3rd sub-pixel in the i-th row jth row display unit i,j=W ' ij.
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