WO2021197385A1 - 显示面板及显示装置 - Google Patents
显示面板及显示装置 Download PDFInfo
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- WO2021197385A1 WO2021197385A1 PCT/CN2021/084522 CN2021084522W WO2021197385A1 WO 2021197385 A1 WO2021197385 A1 WO 2021197385A1 CN 2021084522 W CN2021084522 W CN 2021084522W WO 2021197385 A1 WO2021197385 A1 WO 2021197385A1
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- G—PHYSICS
- G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
- G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
- G09G3/00—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes
- G09G3/20—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters
- G09G3/34—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source
- G09G3/36—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source using liquid crystals
- G09G3/3611—Control of matrices with row and column drivers
- G09G3/3614—Control of polarity reversal in general
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- G—PHYSICS
- G09—EDUCATION; CRYPTOGRAPHY; DISPLAY; ADVERTISING; SEALS
- G09G—ARRANGEMENTS OR CIRCUITS FOR CONTROL OF INDICATING DEVICES USING STATIC MEANS TO PRESENT VARIABLE INFORMATION
- G09G3/00—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes
- G09G3/20—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters
- G09G3/34—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source
- G09G3/36—Control arrangements or circuits, of interest only in connection with visual indicators other than cathode-ray tubes for presentation of an assembly of a number of characters, e.g. a page, by composing the assembly by combination of individual elements arranged in a matrix no fixed position being assigned to or needed to be assigned to the individual characters or partial characters by control of light from an independent source using liquid crystals
Definitions
- the present disclosure relates to the field of display technology, and in particular, to a display panel and a display device.
- LCD Liquid Crystal Display
- CRT cathode-ray tube
- the polarity of the pixel array cannot be fixed at a certain value, otherwise, over time, the liquid crystal molecules in the liquid crystal display will undergo polarization and gradually lose their optical rotation characteristics.
- the pixel array In order to avoid the destruction of the characteristics of the liquid crystal molecules, the pixel array must be polarity inverted, such as 1+N-line Inversion (1+N-line pixel signal polarity inversion) driving method, which is a kind of every N-line
- the pixel unit performs a polarity reversal method, and the polarity reversal positions all occur in the pixel positions of the same row.
- the commonly used driving methods include several driving methods such as a bit inversion, column inversion, row inversion, 1+2-line Inversion (1+N row pixel signal polarity inversion), as shown in Fig. 1.
- Common panel pixel unit architectures include Normal pixel (conventional) architecture and Flip pixel (pixel flip) architecture, as shown in Figure 2.
- Commonly used low color shift technology that is, there are 2 gamma curves, using High (H) and Low (L) regions to improve the visual role shift problem under the normal pixel architecture.
- the resulting technology usually has a normal pixel architecture with 1+2- Line polarity is reversed, flip pixel architecture is matched with column polarity reversal; but the following problems will occur:
- Normal pixel adopts 1+2Line polarity reversal and low color shift technology (HLLH), which has better display effect and improves the problem of visual character shift, but the power consumption is too high, and the temperature of the Driver IC can reach 120 when it is working. The temperature is even higher, so the process of attaching the heat sink has to be adopted to reduce the operating temperature of the Driver IC, which increases the production cost of the entire panel;
- HLLH 1+2Line polarity reversal and low color shift technology
- Flip pixel adopts column polarity reversal technology, which has low power consumption, but there is vertical crosstalk (V crosstalk), and there is a problem of visual character deviation, and the display effect is poor.
- V crosstalk vertical crosstalk
- embodiments of the present disclosure provide a display panel and a display device.
- the present disclosure provides a display panel including:
- the pixel matrix includes X rows and Y columns of pixel units arranged in a matrix by intersecting multiple columns of data lines and multiple rows of scan lines, and X and Y are positive integers;
- a driving module configured to load a voltage to the pixel matrix according to the grayscale value to realize display
- the pixel unit includes a number of sub-pixels, and the arrangement between the sub-pixels is a flip pixel (pixel flip) arrangement.
- each row of sub-pixels of the pixel matrix is connected to one scan line, and each sub-pixel in each column of sub-pixels is alternately connected to data lines on opposite sides; the sub-pixels Including H (High) area and L (Low) area; the timing controller presets a low color shift control method to improve the viewing angle of the panel; the driving module includes a data driving module and a scan driving module; wherein, the data driving The module provides a data signal to the corresponding sub-pixel driving circuit through the data line, and the scan driving module provides a scan signal to the corresponding sub-pixel driving circuit through the scan line.
- the low color cast control method creates two gamma curves for the H zone and the L zone to achieve low color cast technology; the timing controller obtains After the initial pixel value, the first gray scale value and the second gray scale value are formed according to the initial pixel value, and the pixel gray scales of the first gray scale value and the second gray scale value are different, and the first gray scale value is generated according to the first gray scale value.
- the driving module obtains a first loading voltage according to the first gray-scale value, obtains a second loading voltage according to the second gray-scale value, and Loading the first loading voltage and the second loading voltage to the pixel matrix.
- the driving mode of the pixel matrix is a column inversion driving mode.
- the driving mode of the pixel matrix is an N-line (N-row pixel signal) polarity inversion driving mode.
- the driving mode of the pixel matrix is an N-line interleaved polarity inversion driving mode; the N-line interleaved polarity inversion driving mode is a minimum cycle of polarity inversion
- the sub-pixel polarity inversion positions of the column and the column are not in the same row and are staggered up and down.
- the polarity inversion position refers to the position where the polarity changes in any column of sub-pixels, for example, the first sub-pixel to the a-th sub-pixel of the i-th column of sub-pixels are all positive. If the a+1th sub-pixel has a negative polarity, the a+1th sub-pixel is the position where the polarity changes, where 0 ⁇ i ⁇ Y.
- the flip pixel includes: 1-line flip, 2-line flip, or 3-line flip.
- the 1-line flip means that each sub-pixel in the same column alternately connects two data lines on opposite sides with a single sub-pixel in the column direction
- the 2-line flip means that each sub-pixel in the same column is alternately connected to two data lines.
- the column direction uses two sub-pixels as a unit to alternately connect two data lines on opposite sides.
- the 3-line flip means that each sub-pixel in the same column alternately connects two data lines on opposite sides with three sub-pixels in the column direction. Data line.
- An embodiment of the present disclosure also provides a display device, including the display panel described in any one of the foregoing embodiments.
- the above-mentioned display panel and display device adopt a drive structure with flip pixel and N-Line polarity reversal, N-Line interleaved polarity reversal, and low color shift technology, which solves vertical crosstalk, visual character deviation, and blurring. Equidistant horizontal stripes and other issues, and when the designed N value is larger, the temperature and power consumption of the Driver IC are also lower, that is, the comprehensive effect of "low temperature and low power consumption + low crosstalk + excellent display effect" is achieved.
- FIG. 1 is a schematic diagram of common driving methods and their advantages and disadvantages in the prior art.
- FIG. 2 is a schematic diagram of a common panel driving architecture in the prior art.
- FIG. 3 is a schematic diagram of the structure of a display panel in an embodiment of the present disclosure.
- FIG. 4 is a schematic diagram of the 1-line flip+low color shift (HLLH)+column polarity reversal technology architecture in an embodiment of the disclosure.
- FIG. 5 is a schematic diagram of the 1-line flip+low color shift (HLLH)+2-line polarity inversion technology architecture in another embodiment of the present disclosure.
- FIG. 7 is a schematic diagram of a flip pixel + N-line interleaved polarity reversal + low color shift technical architecture in an embodiment of the disclosure.
- FIG. 8 is a schematic diagram of a 1-line flip pixel drive + 8-line interleaved polarity reversal + low color shift (HLLH) structure in an embodiment of the disclosure.
- FIG. 9 is a schematic diagram of several HL combinations in the low color cast technology in an embodiment of the disclosure.
- FIG. 10 is a schematic diagram of the comparison of the effects of three screen technologies in multiple embodiments of the present disclosure.
- a display panel provided in this embodiment includes: a pixel matrix, including X rows arranged in a matrix by intersecting (for example, perpendicularly intersecting) multiple columns of data lines substantially parallel to each other and scan lines substantially parallel to each other.
- X and Y are positive integers
- the timing controller is used to obtain the initial pixel value and obtain the grayscale value according to the initial pixel value
- the drive module or drive circuit
- the grayscale value loads a voltage to the pixel matrix to realize display; wherein, the pixel unit includes a plurality of sub-pixels, and the arrangement between the sub-pixels is a flip pixel (pixel flip) arrangement.
- the flip pixel includes: 1-line flip, 2-line flip, or 3-line flip; of course, the flip pixel architecture is not limited to 1-line flip, but can also be 2-line flip, 3-line flip, etc. Other flip pixel architecture.
- the flip pixel arrangement mode typically refers to that each sub-pixel located in the same column is alternately connected to two data lines on opposite sides along the column direction; correspondingly, 1-line flip typically refers to the same sub-pixel.
- Each sub-pixel of a column alternately connects two data lines on opposite sides of the sub-pixel column with a single sub-pixel as a unit.
- 2-line flip typically means that each sub-pixel in the same sub-pixel column uses two sub-pixels as a unit.
- 3-line flip typically refers to the sub-pixels located in the same sub-pixel column.
- a pixel uses three sub-pixels as a unit (that is, three sub-pixels located in three consecutive rows as a unit) alternately connecting two data lines on opposite sides of the sub-pixel column, and so on.
- each row of sub-pixels of the pixel matrix is connected to one scan line;
- the sub-pixels include H (High) area and L (Low) area;
- the timing controller presets a low color shift control mode To improve the viewing angle of the panel;
- the drive module includes a data drive module (or called a data drive circuit) and a scan drive module (or called a scan drive circuit); wherein the data drive module provides the corresponding sub-pixels through the data line Data signals, the scan driving module provides scan signals for corresponding sub-pixels through the scan lines.
- the low color shift control method realizes the low color shift technology by creating two gamma curves for the H zone and the L zone; after the timing controller obtains the initial pixel value, according to The initial pixel value forms the first gray-scale value and the second gray-scale value, and the pixel gray-scale of the first gray-scale value and the second gray-scale value are different, and the first load voltage is generated according to the first gray-scale value, and according to The second gray-scale value generates a second loading voltage; the driving module obtains a first loading voltage according to the first gray-scale value, obtains a second loading voltage according to the second gray-scale value, and loads the first loading Voltage and the second applied voltage to the pixel matrix.
- the low color cast technology has two gamma curves, and the High (H) area is used in combination with the Low (L) area to improve the visual character deviation; the high area gamma curve has a brighter low gray scale brightness.
- the gamma curve of the Low region has a low gray scale and a darker brightness; for example, in a 4-domain TFT-LCD (Thin Film Transistor Liquid Crystal Display), through the HL matching between adjacent sub-pixels, for example, Figure 9 shows several HL matchings Combined into a new pixel unit, the problem of visual character deviation can be improved by reducing the resolution.
- TFT-LCD Thin Film Transistor Liquid Crystal Display
- the driving mode of the pixel matrix is a column inversion driving mode.
- 1-line flip+low color shift (HLLH)+column polarity inversion can achieve a display effect close to dot inversion, and the driver IC (driver chip) has low temperature and is biased depending on the role.
- the problem is solved, but the problem of longitudinal crosstalk is not well solved.
- a display panel provided in this embodiment includes: a pixel matrix, including X rows arranged in a matrix by intersecting (for example, perpendicularly intersecting) multiple columns of data lines substantially parallel to each other and scan lines substantially parallel to each other.
- X and Y are positive integers
- the timing controller is used to obtain the initial pixel value and obtain the grayscale value according to the initial pixel value
- the driving module is used to obtain the The grayscale value loads a voltage to the pixel matrix to realize display; wherein, the pixel unit includes a plurality of sub-pixels, and the arrangement between the sub-pixels is a flip pixel (pixel flip) arrangement.
- the flip pixel includes: 1-line flip, 2-line flip, or 3-line flip; of course, the flip pixel architecture is not limited to 1-line flip, but can also be 2-line flip, 3-line flip, etc. Other flip pixel architecture.
- each row of sub-pixels of the pixel matrix is correspondingly connected to one scan line, and each sub-pixel in each column of sub-pixels is alternately connected to two data lines on opposite sides along the column direction;
- the sub-pixels include H (High) area and L (Low) area;
- the timing controller presets a low color shift control method to improve the viewing angle of the panel;
- the drive module includes a data drive module (or called a data drive circuit) and a scan drive module ( (Or called a scan driving circuit); wherein the data driving module provides data signals for the corresponding sub-pixels through the data lines, and the scan driving module provides scan signals for the corresponding sub-pixels through the scan lines.
- the low color shift control method realizes the low color shift technology by creating two gamma curves for the H zone and the L zone; after the timing controller obtains the initial pixel value, according to The initial pixel value forms the first gray-scale value and the second gray-scale value, and the pixel gray-scale of the first gray-scale value and the second gray-scale value are different, and the first load voltage is generated according to the first gray-scale value, and according to The second gray-scale value generates a second loading voltage; the driving module obtains a first loading voltage according to the first gray-scale value, obtains a second loading voltage according to the second gray-scale value, and loads the first loading Voltage and the second applied voltage to the pixel matrix.
- the low color cast technology has two gamma curves, and the High (H) area is used in combination with the Low (L) area to improve the visual character deviation; the high area gamma curve has a brighter low gray scale brightness.
- the gamma curve of the Low area has low grayscale and darker brightness; for example, in a 4domain TFT-LCD, through the HL matching between adjacent sub-pixels, for example, Figure 9 shows that several HL matchings are combined into a new pixel unit, which can reduce The resolution method improves the visual character bias.
- the driving mode of the pixel matrix is an N-line (N-row pixel signal) polarity inversion driving mode.
- the driving architecture proposed in this embodiment is flip pixel + N-line polarity inversion + low color shift technology architecture, which mainly addresses the problem of vertical crosstalk.
- HLLH 1-line flip+low color shift
- a display panel provided in this embodiment includes: a pixel matrix, including X rows arranged in a matrix by intersecting (for example, perpendicularly intersecting) multiple columns of data lines substantially parallel to each other and scan lines substantially parallel to each other.
- X and Y are positive integers
- the timing controller is used to obtain the initial pixel value and obtain the grayscale value according to the initial pixel value
- the driving module is used to obtain the The grayscale value loads a voltage to the pixel matrix to realize display; wherein, the pixel unit includes a plurality of sub-pixels, and the arrangement between the sub-pixels is a flip pixel (pixel flip) arrangement.
- the flip pixel includes: 1-line flip, 2-line flip, or 3-line flip; of course, the flip pixel architecture is not limited to 1-line flip, but can also be 2-line flip, 3-line flip, etc. Other flip pixel architecture.
- each row of sub-pixels of the pixel matrix is correspondingly connected to one scan line, and each sub-pixel in each column of sub-pixels is alternately connected to two data lines on opposite sides along the column direction;
- the sub-pixels include H (High) area and L (Low) area;
- the timing controller presets a low color shift control method to improve the viewing angle of the panel;
- the drive module includes a data drive module (or called a data drive circuit) and a scan drive module ( (Or called a scan driving circuit); wherein the data driving module provides data signals for the corresponding sub-pixels through the data lines, and the scan driving module provides scan signals for the corresponding sub-pixels through the scan lines.
- the low color shift control method realizes the low color shift technology by creating two gamma curves for the H zone and the L zone; after the timing controller obtains the initial pixel value, according to The initial pixel value forms the first gray-scale value and the second gray-scale value, and the pixel gray-scale of the first gray-scale value and the second gray-scale value are different, and the first load voltage is generated according to the first gray-scale value, and according to The second gray-scale value generates a second loading voltage; the driving module obtains a first loading voltage according to the first gray-scale value, obtains a second loading voltage according to the second gray-scale value, and loads the first loading Voltage and the second applied voltage to the pixel matrix.
- the low color cast technology has two gamma curves, and the combination of the High (H) area and the Low (L) area is used to improve the visual character deviation problem, and the specific combination is not limited to the HLLH or LHHL basic loop unit;
- the gamma curve in the High area has a brighter low grayscale brightness
- the low gamma curve of the Low area has a darker grayscale brightness; for example, under a 4-domain (domain) TFT-LCD, through the HL matching between adjacent sub-pixels, as shown in Figure 9
- Combining several HLs into a new pixel unit can reduce the problem of visual character deviation by reducing the resolution.
- the driving mode of the pixel matrix is an N-line interlaced polarity inversion driving mode; the N-line interlaced polarity inversion driving mode is in the minimum cycle unit of polarity inversion, column and column
- the polarity inversion positions of the sub-pixels are not in the same row and are staggered up and down.
- the polarity inversion position refers to the position where the polarity changes in any column of sub-pixels.
- the first sub-pixel to the a-th sub-pixel of the i-th column of sub-pixels are all positive in polarity, and the a+1th sub-pixel has a positive polarity. If each sub-pixel has a negative polarity, the a+1th sub-pixel is the position where the polarity changes, where 0 ⁇ i ⁇ Y.
- the panel architecture proposed in this embodiment is a flip pixel + N-line interlaced polarity reversal + low color shift technology architecture, which is mainly aimed at the phenomenon of equidistant horizontal horizontal stripes;
- N- The line interleaved polarity reversal method is: Source output (data (line) output of the source driver or data drive module) performs a polarity reversal every N rows of data output, and the polarity reversal positions of different Source output are staggered.
- the sex reversal technology also has the effect of solving the problem of longitudinal crosstalk and breaking up the horizontal stripes caused by the N-line, and the larger the value of N, the less the number of voltage switching times in a frame, the driver IC (drive circuit integrated chip) The lower the current, the lower the power consumption and temperature.
- a display panel provided in this embodiment includes: a pixel matrix, including X rows arranged in a matrix by intersecting (for example, perpendicularly intersecting) multiple columns of data lines substantially parallel to each other and scan lines substantially parallel to each other.
- X and Y are positive integers
- the timing controller is used to obtain the initial pixel value and obtain the grayscale value according to the initial pixel value
- the driving module is used to obtain the The grayscale value loads a voltage to the pixel matrix to realize display; wherein, the pixel unit includes a plurality of sub-pixels, and the arrangement between the sub-pixels is a flip pixel (pixel flip) arrangement.
- the flip pixel includes: 1-line flip, 2-line flip, or 3-line flip; of course, the flip pixel architecture is not limited to 1-line flip, but can also be 2-line flip, 3-line flip, etc. Other flip pixel architecture.
- the driving mode of the pixel matrix is an N-line interlaced polarity reversal mode;
- the N-line interlaced polarity reversal driving mode is that in the minimum cycle unit of polarity reversal, column to column
- the sub-pixel polarity inversion positions are not in the same row and are staggered up and down.
- the polarity inversion position refers to the position where the polarity changes in any column of sub-pixels.
- the first sub-pixel to the a-th sub-pixel of the i-th column of sub-pixels are all positive in polarity, and the a+1th sub-pixel has a positive polarity. If each sub-pixel has a negative polarity, the a+1th sub-pixel is the position where the polarity changes, where 0 ⁇ i ⁇ Y.
- the N-line interleaved polarity reversal method is: Source output (the data (line) output of the source driver or the data driver module) performs a polarity reversal every time N rows of data are output, and the polarity of different Source output is reversed.
- the rotation position is staggered and is not on a horizontal line. It can blur the current N-Line or 1+N-line equidistant horizontal stripes.
- Various embodiments of the present disclosure propose three flip-pixel drive architectures with N-Line polarity inversion, N-Line interleaved polarity inversion, and low color shift design, which can solve the problem of vertical crosstalk and optimize visual roles.
- the comparison of each display effect screen is shown in Figure 10.
- the embodiment of the present disclosure also provides a display device, including the display panel described in any one of the foregoing embodiments, and correspondingly has no vertical crosstalk problems, disperses horizontal stripes caused by N-line, and optimizes the display effect and has a better viewing angle. Good or (and) technical effects such as low power consumption and low temperature.
- the specific display panel technology used is as described in the foregoing implementations, and will not be repeated here.
- the display panel of this embodiment may be a liquid crystal display panel.
- the display device of this embodiment further has a backlight module that provides backlighting for the liquid crystal display panel; of course, the embodiment of the present disclosure does not Limited by this.
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Abstract
一种显示面板,包括:像素矩阵,包括由多列数据线和多行扫描线相互交叉形成以矩阵方式排列的X行Y列像素单元;时序控制器,用于获取初始像素值,并根据初始像素值得到灰阶值;以及,驱动模块,用于根据灰阶值加载电压到像素矩阵实现显示。像素单元包括若干子像素,子像素之间的排列方式为Flip pixel(像素翻转)排列方式。通过三种Flip pixel与N-Line极性反转、N-Line交错式极性反转、低色偏设计搭配的驱动架构,解决了纵向串扰、视角色偏、模糊化等距横纹等问题,且当设计的N值越大,Driver IC的温度与功耗也越低,即达成"低温低功耗+低串扰+显示效果优"的综合效果。
Description
本公开涉及显示技术领域,尤其涉及一种显示面板以及一种显示装置。
随着显示技术的发展,液晶显示器(Liquid Crystal Display,简称LCD)由于具有轻、薄及低辐射等优点,逐渐取代阴极射线管(Cathode Ray Tube,简称CRT)显示装置,在计算机、智能电话、手机、汽车导航装置、电子书等信息终端中成为最常见的显示装置。
液晶显示器中,像素阵列的极性不能固定在某一个值不变,否则时间久了,液晶显示器中的液晶分子会发生极化现象,从而逐渐失去旋光特性。为了避免液晶分子的特性遭到破坏,像素阵列必须进行极性反转,例如1+N-line Inversion(1+N行像素信号极性反转)的驱动方式,其是一种每隔N行像素单元便进行一次极性反转的方式,其极性反转位置都发生在同一行的像素位置上。
目前,常用的驱动方式有点反转、列反转、行反转、1+2-line Inversion(1+N行像素信号极性反转)等几种驱动方式,如图1所示。常见面板像素单元架构有Normal pixel(常规)架构和Flip pixel(像素翻转)架构,如图2所示。常用低色偏技术(即存在2条gamma曲线,利用High(H)与Low(L)区域搭配)于normal pixel架构下改善视角色偏问题,形成的技术通常有normal pixel架构搭配1+2-line极性反转,flip pixel架构搭配column极性反转;但是会出现如下问题:
1.Normal pixel采用1+2Line极性反转与低色偏技术(HLLH),其显示效果较 佳、且改善了视角色偏问题,但功耗太高,Driver IC工作时的温度可达到120℃甚至更高,因此不得不采取贴附散热片的工序来降低Driver IC的工作温度,增加了整个面板的生产成本;
2.Flip pixel采用column极性反转技术,功耗较低,但存在纵向串扰(V crosstalk)、且存在视角色偏问题,显示效果差。
发明内容
为克服相关技术中的至少部分缺陷和不足,本公开的实施例提供一种显示面板以及一种显示装置。
本公开提供了一种显示面板,包括:
像素矩阵,包括由多列数据线和多行扫描线相互交叉形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;
时序控制器,用于获取初始像素值,根据所述初始像素值得到灰阶值;以及
驱动模块,用于根据所述灰阶值加载电压到所述像素矩阵实现显示;
其中,所述像素单元包括若干子像素,所述子像素之间的排列方式为Flip pixel(像素翻转)排列方式。
在本公开的一个实施例中,所述像素矩阵的每一行子像素对应的与一条扫描线连接,每一列子像素中的各个子像素以交替方式连接相对两侧的数据线;所述子像素包括H(High)区和L(Low)区;所述时序控制器预设低色偏控制方式用于改善面板视角;所述驱动模块包括数据驱动模块和扫描驱动模块;其中,所述数据驱动模块通过所述数据线为对应的子像素驱动电路提供数据信号,所述扫描驱动模块通过所述扫描线为对应的子像素驱动电路提供扫描信号。
在本公开的一个实施例中,所述低色偏控制方式通过创建出两个伽玛(Gamma) 曲线给所述H区和所述L区以实现低色偏技术;所述时序控制器获取初始像素值后,根据初始像素值形成第一灰阶值和第二灰阶值,并使第一灰阶值与第二灰阶值的像素灰阶不同,并根据第一灰阶值生成第一加载电压,以及根据第二灰阶值生成第二加载电压;所述驱动模块根据所述第一灰阶值得到第一加载电压,根据所述第二灰阶值得到第二加载电压,并加载所述第一加载电压和所述第二加载电压到所述像素矩阵。
在本公开的一个实施例中,所述像素矩阵的驱动方式为column列反转驱动方式。
在本公开的一个实施例中,所述像素矩阵的驱动方式为N-line(N行像素信号)极性反转驱动方式。
在本公开的一个实施例中,所述像素矩阵的驱动方式为N-line交错式极性反转驱动方式;所述N-line交错式极性反转驱动方式为在极性反转最小循环单元内,列与列的子像素极性反转位置不在同一行且上下交错分布。
在本公开的一个实施例中,所述极性反转位置是指在任意一列子像素中,极性发生变化的位置,如第i列子像素的第1个子像素至第a个子像素均为正极性,第a+1个子像素为负极性,则第a+1个子像素即为极性发生变化的位置,其中,0<i<Y。
在本公开的一个实施例中,所述Flip pixel包括:1-line flip、2-line flip或3-line flip。其中所述1-line flip为位于同一列的各个子像素沿列方向以单个子像素为单元交替连接相对两侧的两条数据线,所述2-line flip为位于同一列的各个子像素沿列方向以两个子像素为单元交替连接相对两侧的两条数据线,所述3-line flip为位于同一列的各个子像素沿列方向以三个子像素为单元交替连接相对两侧的两 条数据线。
本公开的一个实施例还提供一种显示装置,包括前述任意一个实施例所述的显示面板。
上述显示面板及显示装置中采用了Flip pixel与N-Line极性反转、N-Line交错式极性反转、低色偏技术搭配的驱动架构,解决了纵向串扰、视角色偏、模糊化等距横纹等问题,且当设计的N值越大,Driver IC的温度与功耗也越低,即达成了“低温低功耗+低串扰+显示效果优”的综合效果。
为了更清楚地说明本公开实施例的技术方案,下面将对实施例描述中所需要使用的附图作简单地介绍,显而易见地,下面描述中的附图仅仅是本公开的一些实施例,对于本领域普通技术人员来讲,在不付出创造性劳动的前提下,还可以根据这些附图获得其他的附图。
图1为现有技术中的常见的驱动方式及其优缺点示意图表。
图2为现有技术中的常见面板驱动架构示意图。
图3为本公开一个实施例中的一种显示面板结构示意图。
图4为本公开一个实施例中的1-line flip+低色偏(HLLH)+column极性反转技术架构示意图。
图5为本公开另一个实施例中的1-line flip+低色偏(HLLH)+2-line极性反转技术架构示意图。
图6为本公开一个实施例中的Flip pixel+N-line极性反转+低色偏技术N=8时呈现在面板显示上为等距水平横纹现象的示意图。
图7为本公开一个实施例中的Flip pixel+N-line交错式极性反转+低色偏 技术架构示意图。
图8为本公开一个实施例中的1-line Flip pixel驱动+8-line交错式极性反转+低色偏(HLLH)架构示意图。
图9为本公开一个实施例中的低色偏技术中的几种HL搭配示意图。
图10为本公开多个实施例中的三种画面技术效果对比示意图。
为使本公开实施例的目的、技术方案和优点更加清楚,下面将结合本公开实施例中的附图,对本公开实施例中的技术方案进行清楚、完整地描述;显然,所描述的实施例是本公开一部分实施例,而不是全部的实施例。基于本公开中的实施例,本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例,都属于本公开保护的范围。
以下各实施例的说明是参考附加的图式,用以例示本公开可用以实施的特定实施例。本公开所提到的方向用语,例如「上」、「下」、「前」、「后」、「左」、「右」、「内」、「外」、「侧面」等,仅是参考附加图式的方向。因此,使用的方向用语是用以说明及理解本公开,而非用以限制本公开。
附图和说明被认为在本质上是示出性的,而不是限制性的。在图中,结构相似的单元是以相同标号表示。另外,为了理解和便于描述,附图中示出的每个组件的尺寸和厚度是任意示出的,但是本公开不限于此。
另外,在说明书中,除非明确地描述为相反的,否则词语“包括”将被理解为意指包括所述组件,但是不排除任何其它组件。此外,在说明书中,“在......上”意指位于目标组件上方或者下方,而不意指必须位于基于重力方向的顶部上。
为更进一步阐述本公开为达成预定公开目的所采取的技术手段及功效,以下结合附图及较佳实施例,对依据本公开提出的显示面板及显示装置,其具体实施方式、结构、特征及其功效,详细说明如后。
【实施例一】
如图3所示。
本实施例中提供的一种显示面板,包括:像素矩阵,包括由大致相互平行的多列数据线和大致相互平行的多行扫描线相互交叉(例如垂直交叉)形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;时序控制器,用于获取初始像素值,并根据所述初始像素值得到灰阶值;以及,驱动模块(或称驱动电路),用于根据所述灰阶值加载电压到所述像素矩阵实现显示;其中,所述像素单元包括若干子像素,所述子像素之间的排列方式为Flip pixel(像素翻转)排列方式。
具体地,所述Flip pixel包括:1-line flip、2-line flip或3-line flip;当然,Flip pixel架构不局限于1-line flip,也可以是2-line flip、3-line flip等其他Flip pixel架构。其中,所述Flip pixel排列方式典型地是指位于同一列的各个子像素沿列方向以交替方式连接相对两侧的两条数据线;相应地,1-line flip典型地是指位于同一个子像素列的各个子像素以单个子像素为单元交替连接该子像素列的相对两侧的两条数据线,2-line flip典型地是指位于同一个子像素列的各个子像素以两个子像素为单元(也即以位于相邻两行中的两个子像素为一个单元)交替连接该子像素列的相对两侧的两条数据线,3-line flip典型地是指位于同一个子像素列的各个子像素以三个子像素为单元(也即以位于连续三行中的三个子像素为一个单元)交替连接该子像素列的相对两侧的两条数据线, 以此类推。
进一步地,所述像素矩阵的每一行子像素对应的与一条扫描线连接;所述子像素包括H(High)区和L(Low)区;所述时序控制器预设低色偏控制方式用于改善面板视角;所述驱动模块包括数据驱动模块(或称数据驱动电路)和扫描驱动模块(或称扫描驱动电路);其中,所述数据驱动模块通过所述数据线为对应的子像素提供数据信号,所述扫描驱动模块通过所述扫描线为对应的子像素提供扫描信号。
进一步地,所述低色偏控制方式通过创建出两个伽玛(Gamma)曲线给所述H区和所述L区以实现低色偏技术;所述时序控制器获取初始像素值后,根据初始像素值形成第一灰阶值和第二灰阶值,并使第一灰阶值与第二灰阶值的像素灰阶不同,并根据第一灰阶值生成第一加载电压,以及根据第二灰阶值生成第二加载电压;所述驱动模块根据所述第一灰阶值得到第一加载电压,根据所述第二灰阶值得到第二加载电压,并加载所述第一加载电压和所述第二加载电压到所述像素矩阵。
具体地,所述低色偏技术即存在2条gamma曲线,利用High(H)区域,与Low(L)区域搭配,改善视角色偏问题;所述High区域gamma曲线低灰阶亮度较亮,所述Low区域gamma曲线低灰阶亮度较暗;例如在4-domain(畴)的TFT-LCD(薄膜晶体管液晶显示器)下,通过相邻子像素间HL搭配,例如图9为几种HL搭配结合成一个新的像素单元,可以以降低解析度的方式改善视角色偏问题。
进一步地,所述像素矩阵的驱动方式为column列反转驱动方式。
具体地,如图4所示,1-line flip+低色偏(HLLH)+column极性反转,可 达到接近于点反转的显示效果,且Driver IC(驱动芯片)温度低、视角色偏问题得到解决,只是纵向串扰问题没有很好的解决。
【实施例二】
再次如图3所示。
本实施例中提供的一种显示面板,包括:像素矩阵,包括由大致相互平行的多列数据线和大致相互平行的多行扫描线相互交叉(例如垂直交叉)形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;时序控制器,用于获取初始像素值,并根据所述初始像素值得到灰阶值;以及,驱动模块(或称驱动电路),用于根据所述灰阶值加载电压到所述像素矩阵实现显示;其中,所述像素单元包括若干子像素,所述子像素之间的排列方式为Flip pixel(像素翻转)排列方式。
具体地,所述Flip pixel包括:1-line flip、2-line flip或3-line flip;当然,Flip pixel架构不局限于1-line flip,也可以是2-line flip、3-line flip等其他Flip pixel架构。
进一步地,所述像素矩阵的每一行子像素对应的与一条扫描线连接,每一列子像素中的各个子像素沿列方向以交替方式连接相对两侧的两条数据线;所述子像素包括H(High)区和L(Low)区;所述时序控制器预设低色偏控制方式用于改善面板视角;所述驱动模块包括数据驱动模块(或称数据驱动电路)和扫描驱动模块(或称扫描驱动电路);其中,所述数据驱动模块通过所述数据线为对应的子像素提供数据信号,所述扫描驱动模块通过所述扫描线为对应的子像素提供扫描信号。
进一步地,所述低色偏控制方式通过创建出两个伽玛(Gamma)曲线给所述 H区和所述L区以实现低色偏技术;所述时序控制器获取初始像素值后,根据初始像素值形成第一灰阶值和第二灰阶值,并使第一灰阶值与第二灰阶值的像素灰阶不同,并根据第一灰阶值生成第一加载电压,以及根据第二灰阶值生成第二加载电压;所述驱动模块根据所述第一灰阶值得到第一加载电压,根据所述第二灰阶值得到第二加载电压,并加载所述第一加载电压和所述第二加载电压到所述像素矩阵。
具体地,所述低色偏技术即存在2条gamma曲线,利用High(H)区域,与Low(L)区域搭配,改善视角色偏问题;所述High区域gamma曲线低灰阶亮度较亮,所述Low区域gamma曲线低灰阶亮度较暗;例如在4domain的TFT-LCD下,通过相邻子像素间HL搭配,例如图9为几种HL搭配结合成一个新的像素单元,可以以降低解析度的方式改善视角色偏问题。
进一步地,所述像素矩阵的驱动方式为N-line(N行像素信号)极性反转驱动方式。
具体地,本实施例提出驱动架构为Flip pixel+N-line极性反转+低色偏技术架构主要针对纵向串扰这一问题。如图5所示,例如采用1-line flip+低色偏(HLLH)+2-line极性反转(对应N=2的N-line极性反转)架构,即可消除纵向串扰,具有视角较佳效果,且N取值越大Driver IC温度越低;然而,当N取值变大时,由于RC延迟效应,使得每次极性转换后的第一个像素有充电不足,此效应在高解析度/高频规格下会更明显,而此现象呈现在面板显示上为等距水平横纹现象,例如以N=8为例所出现的情况如图6所示。
【实施例三】
再次如图3所示。
本实施例中提供的一种显示面板,包括:像素矩阵,包括由大致相互平行的多列数据线和大致相互平行的多行扫描线相互交叉(例如垂直交叉)形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;时序控制器,用于获取初始像素值,并根据所述初始像素值得到灰阶值;以及,驱动模块(或称驱动电路),用于根据所述灰阶值加载电压到所述像素矩阵实现显示;其中,所述像素单元包括若干子像素,所述子像素之间的排列方式为Flip pixel(像素翻转)排列方式。
具体地,所述Flip pixel包括:1-line flip、2-line flip或3-line flip;当然,Flip pixel架构不局限于1-line flip,也可以是2-line flip、3-line flip等其他Flip pixel架构。
进一步地,所述像素矩阵的每一行子像素对应的与一条扫描线连接,每一列子像素中的各个子像素沿列方向以交替方式连接相对两侧的两条数据线;所述子像素包括H(High)区和L(Low)区;所述时序控制器预设低色偏控制方式用于改善面板视角;所述驱动模块包括数据驱动模块(或称数据驱动电路)和扫描驱动模块(或称扫描驱动电路);其中,所述数据驱动模块通过所述数据线为对应的子像素提供数据信号,所述扫描驱动模块通过所述扫描线为对应的子像素提供扫描信号。
进一步地,所述低色偏控制方式通过创建出两个伽玛(Gamma)曲线给所述H区和所述L区以实现低色偏技术;所述时序控制器获取初始像素值后,根据初始像素值形成第一灰阶值和第二灰阶值,并使第一灰阶值与第二灰阶值的像素灰阶不同,并根据第一灰阶值生成第一加载电压,以及根据第二灰阶值生成第二加载电压;所述驱动模块根据所述第一灰阶值得到第一加载电压,根据所 述第二灰阶值得到第二加载电压,并加载所述第一加载电压和所述第二加载电压到所述像素矩阵。
具体地,所述低色偏技术即存在2条gamma曲线,利用High(H)区域与Low(L)区域搭配改善视角色偏问题,而具体搭配不局限于HLLH或LHHL基本循环单元;所述High区域gamma曲线低灰阶亮度较亮,所述Low区域gamma曲线低灰阶亮度较暗;例如在4-domain(畴)的TFT-LCD下,通过相邻子像素间HL搭配,例如图9为几种HL搭配结合成一个新的像素单元,可以以降低解析度的方式改善视角色偏问题。
进一步地,所述像素矩阵的驱动方式为N-line交错式极性反转驱动方式;所述N-line交错式极性反转驱动方式为在极性反转最小循环单元内,列与列的子像素极性反转位置不在同一行且上下交错分布。
进一步地,所述极性反转位置是指在任意一列子像素中,极性发生变化的位置,如第i列子像素的第1个子像素至第a个子像素均为正极性,第a+1个子像素为负极性,则第a+1个子像素即为极性发生变化的位置,其中,0<i<Y。
具体地,如图7、图8所示,本实施例提出的面板架构为Flip pixel+N-line交错式极性反转+低色偏技术架构,主要针对等距水平横纹现象;N-line交错式极性反转方式为:Source output(源极驱动器或数据驱动模块的数据(线)输出)每输出N行资料进行一次极性反转,不同Source output极性反转位置存在交错,不在一条水平线上,可模糊化现行N-Line或1+N-line等距横纹现象,且当N越大时,交错式排列的变形越多:所以Flip pixel驱动搭配N-line交错式极性反转技术,也具有解决纵向串扰问题、能打散N-line造成的水平横纹等效果,且N取值越大,一帧时间电压切换次数越少,driver IC(驱动电路集成 芯片)电流越低,功耗和温度会越低。
【实施例四】
再次如图3所示。
本实施例中提供的一种显示面板,包括:像素矩阵,包括由大致相互平行的多列数据线和大致相互平行的多行扫描线相互交叉(例如垂直交叉)形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;时序控制器,用于获取初始像素值,并根据所述初始像素值得到灰阶值;以及,驱动模块(或称驱动电路),用于根据所述灰阶值加载电压到所述像素矩阵实现显示;其中,所述像素单元包括若干子像素,所述子像素之间的排列方式为Flip pixel(像素翻转)排列方式。
具体地,所述Flip pixel包括:1-line flip、2-line flip或3-line flip;当然,Flip pixel架构不局限于1-line flip,也可以是2-line flip、3-line flip等其他Flip pixel架构。
进一步地,所述像素矩阵的驱动方式为N-line交错式极性反转方式;所述N-line交错式极性反转驱动方式为在极性反转最小循环单元内,列与列的子像素极性反转位置不在同一行且上下交错分布。
进一步地,所述极性反转位置是指在任意一列子像素中,极性发生变化的位置,如第i列子像素的第1个子像素至第a个子像素均为正极性,第a+1个子像素为负极性,则第a+1个子像素即为极性发生变化的位置,其中,0<i<Y。
具体地,N-line交错式极性反转方式为:Source output(源极驱动器或数据驱动模块的数据(线)输出)每输出N行资料进行一次极性反转,不同Source output极性反转位置存在交错,不在一条水平线上,可模糊化现行N-Line或 1+N-line等距横纹现象,且当N越大时,交错式排列的变形越多:所以Flip pixel驱动搭配N-line交错式极性反转技术,也具有解决纵向串扰问题、能打散N-line造成的水平横纹等效果,且N取值越大,一帧时间电压切换次数越少,driver IC(驱动电路集成芯片)电流越低,功耗和温度会越低。
本公开的多个实施例提出的三种Flip pixel与N-Line极性反转、N-Line交错式极性反转、低色偏设计搭配的驱动架构,可解决纵向串扰问题、优化视角色偏问题、模糊化等距横纹问题,且当设计的N值越大,Driver IC的温度与功耗也越低,即达成“低温低功耗+低串扰+显示效果优”的综合效果,各显示效果画面对比如图10所示。
本公开的实施例还提供一种显示装置,包括前述任一实施例所述的显示面板,相应地也具有无纵向串扰问题、打散N-line造成的水平横纹,优化显示效果、视角较佳或(和)功耗和温度低等技术效果。具体所采用的显示面板的技术如前述各实施的说明,此处不再赘述。值得一提的是,本实施例的显示面板可以是液晶显示面板,相应地本实施例的显示装置例如还具有为液晶显示面板提供背光照明的背光模组;当然,本公开的实施例并不以此为限。
“在一些实施例中”及“在各种实施例中”等用语被重复地使用。所述用语通常不是指相同的实施例;但它也可以是指相同的实施例。“包含”、“具有”及“包括”等用词是同义词,除非其前后文意显示出其它意思。
以上所述,仅是本公开的较佳实施例而已,并非对本公开作任何形式上的限制,虽然本公开已以具体的实施例揭露如上,然而并非用以限定本公开,任何熟悉本专业的技术人员,在不脱离本公开技术方案范围内,当可利用上述揭示的技术内容做出些许更动或修饰为等同变化的等效实施例,但凡是未脱离本公开技术 方案的内容,依据本公开的技术实质对以上实施例所作的任何简单修改、等同变化与修饰,均仍属于本公开技术方案的范围内。
Claims (16)
- 一种显示面板,包括:像素矩阵,包括由多列数据线和多行扫描线相互交叉形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;时序控制器,用于获取初始像素值,并根据所述初始像素值得到灰阶值;驱动模块,用于根据所述灰阶值加载电压到所述像素矩阵实现显示;其中,所述像素单元包括若干子像素,所述像素矩阵的所述子像素之间的排列方式为Flip pixel(像素翻转)排列方式。
- 根据权利要求1所述的显示面板,其中,所述像素矩阵的每一行子像素对应的与一条扫描线连接,每一列子像素中的各个子像素以交替方式连接相对两侧的两条数据线;所述子像素包括H(High)区和L(Low)区;所述时序控制器预设低色偏控制方式用于改善面板视角;所述驱动模块包括数据驱动模块和扫描驱动模块;其中,所述数据驱动模块通过所述数据线为对应的子像素驱动电路提供数据信号,所述扫描驱动模块通过所述扫描线为对应的子像素驱动电路提供扫描信号。
- 根据权利要求2所述的显示面板,其中,所述低色偏控制方式通过创建出两个伽玛(Gamma)曲线给所述H区和所述L区以实现低色偏;所述时序控制器获取初始像素值后,根据初始像素值形成第一灰阶值和第二灰阶值,并使第一灰阶值与第二灰阶值的像素灰阶不同,并根据第一灰阶值生成 第一加载电压,以及根据第二灰阶值生成第二加载电压;所述驱动模块根据所述第一灰阶值得到第一加载电压,根据所述第二灰阶值得到第二加载电压,并加载所述第一加载电压和所述第二加载电压到所述像素矩阵。
- 根据权利要求3所述的显示面板,其中,所述像素矩阵的驱动方式为column(列)反转驱动方式。
- 根据权利要求3所述的显示面板,其中,所述像素矩阵的驱动方式为N-line(N行像素信号)极性反转驱动方式。
- 根据权利要求3所述的显示面板,其中,所述像素矩阵的驱动方式为N-line交错式极性反转驱动方式;所述N-line交错式极性反转驱动方式为在极性反转最小循环单元内,列与列的子像素极性反转位置不在同一行且上下交错分布。
- 根据权利要求1所述的显示面板,其中,所述像素矩阵的驱动方式为N-line交错式极性反转驱动方式;所述N-line交错式极性反转驱动方式为在极性反转最小循环单元内,列与列的子像素极性反转位置不在同一行且上下交错分布。
- 根据权利要求6或7所述的显示面板,其中,所述极性反转位置是指在任意一列子像素中,极性发生变化的位置,如第i列子像素的第1个子像素至第a个子像素均为正极性,第a+1个子像素为负极性,则第a+1个子像素即为极性发生变化的位置,其中,0<i<Y。
- 根据权利要求1-8任一所述的显示面板,其中,所述Flip pixel包括:1-line flip、2-line flip或3-line flip;其中所述1-line flip为位于同一列的各个子像素沿列 方向以单个子像素为单元交替连接相对两侧的两条数据线,所述2-line flip为位于同一列的各个子像素沿列方向以两个子像素为单元交替连接相对两侧的两条数据线,所述3-line flip为位于同一列的各个子像素沿列方向以三个子像素为单元交替连接相对两侧的两条数据线。
- 一种显示装置包括显示面板,其中所述显示面板包括:像素矩阵,包括由多列数据线和多行扫描线相互交叉形成以矩阵方式排列的X行Y列像素单元,X和Y为正整数;时序控制器,用于获取初始像素值,并根据所述初始像素值得到灰阶值;驱动模块,用于根据所述灰阶值加载电压到所述像素矩阵实现显示;其中,每一个所述像素单元包括若干子像素,所述像素矩阵的所述子像素之间的排列方式为Flip pixel排列方式。
- 根据权利要求10所述的显示装置,其中,所述像素矩阵的每一行子像素对应的与一条扫描线连接,每一列子像素中的各个子像素以交替方式连接相对两侧的两条数据线;所述子像素包括H(High)区和L(Low)区;所述时序控制器预设低色偏控制方式用于改善面板视角;所述驱动模块包括数据驱动模块和扫描驱动模块;其中,所述数据驱动模块通过所述数据线为对应的子像素驱动电路提供数据信号,所述扫描驱动模块通过所述扫描线为对应的子像素驱动电路提供扫描信号。
- 根据权利要求11所述的显示装置,其中,所述低色偏控制方式通过创建出两个伽玛(Gamma)曲线给所述H区和所述L区以实现低色偏;所述时序控制器获取初始像素值后,根据初始像素值形成第一灰阶值和第二灰阶值,并使第一灰阶值与第二灰阶值的像素灰阶不同,并根据第一灰阶值生成第一加载电压,以及根据第二灰阶值生成第二加载电压;所述驱动模块根据所述第一灰阶值得到第一加载电压,根据所述第二灰阶值得到第二加载电压,并加载所述第一和第二加载电压到所述像素矩阵。
- 根据权利要求12所述的显示装置,其中,所述像素矩阵的驱动方式为column(列)反转驱动方式。
- 根据权利要求12所述的显示装置,其中,所述像素矩阵的驱动方式为N-line(N行像素信号)极性反转驱动方式。
- 根据权利要求12所述的显示装置,其中,所述像素矩阵的驱动方式为N-line交错式极性反转驱动方式;所述N-line交错式极性反转驱动方式为在极性反转最小循环单元内,列与列的子像素极性反转位置不在同一行且上下交错分布;所述极性反转位置是指在任意一列子像素中,极性发生变化的位置,如第i列子像素的第1个子像素至第a个子像素均为正极性,第a+1个子像素为负极性,则第a+1个子像素即为极性发生变化的位置,其中,0<i<Y。
- 根据权利要求10所述的显示装置,其中,所述Flip pixel包括:1-line flip、2-line flip或3-line flip;其中所述1-line flip为位于同一列的各个子像素沿列方向以单个子像素为单元交替连接相对两侧的两条数据线,所述2-line flip为位于同一列的各个子像素沿列方向以两个子像素为单元交替连接相对两侧的两条数据线,所述3-line flip为位于同一列的各个子像素沿列方向以三个子像素为单元交替连接相对两侧的两条数据线。
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