Abstract: A pixel array is implemented in a display device. The display device includes a plurality of data lines and a plurality of scan lines. The pixel array includes a first sub pixel row, a second sub pixel row, and a third sub pixel row. The first sub pixel row includes a first sub pixel, a second sub pixel, and a third sub pixel. The second sub pixel row includes a fourth sub pixel, a fifth sub pixel, and a sixth sub pixel. The third sub pixel row includes a seventh sub pixel, an eighth sub pixel, and a ninth sub pixel. The seventh sub pixel is electrically coupled to a first data line. The first sub pixel, the fourth sub pixel, and the fifth sub pixel are electrically coupled to a second data line. The second sub pixel, the third sub pixel, and the eighth sub pixel are electrically coupled to a third data line. The sixth sub pixel and the ninth sub pixel are electrically coupled to a fourth data line.

Abstract: A pixel array is implemented in a display device. The display device includes a plurality of data lines and a plurality of scan lines. The pixel array includes a first sub pixel row, a second sub pixel row, and a third sub pixel row. The first sub pixel row includes a first sub pixel, a second sub pixel, and a third sub pixel. The second sub pixel row includes a fourth sub pixel, a fifth sub pixel, and a sixth sub pixel. The third sub pixel row includes a seventh sub pixel, an eighth sub pixel, and a ninth sub pixel. The seventh sub pixel is electrically coupled to a first data line. The first sub pixel, the fourth sub pixel, and the fifth sub pixel are electrically coupled to a second data line. The second sub pixel, the third sub pixel, and the eighth sub pixel are electrically coupled to a third data line. The sixth sub pixel and the ninth sub pixel are electrically coupled to a fourth data line.

Abstract: An image display method of a half-source-driving (HSD) liquid crystal display (LCD) for mitigating the screen flickering effect caused by applying a frame rate control (FRC) algorithm in the LCD includes providing a first gate sequence corresponding to a pixel array in the LCD display. If a target gray level of the pixel array is an average value of a first gray level and a second gray level, write the first gray level to a plurality of sub-pixels of the pixel array being charged first according to the first gate sequence, and write the second gray level smaller than the first gray level to a plurality of sub-pixels of the pixel array being charged latter according to the first gate sequence.

Abstract: A method for driving a display panel is provided. The method includes the following steps. Firstly, providing a first scan signal to turn on a plurality of first sub-pixels within the ith pixel row of the display panel during a Nth frame period, so as to make the first sub-pixels respectively receive a corresponding first data signal. Next, providing a second scan signal to turn on a plurality of second sub-pixels within the ith pixel row of the display panel during the Nth frame period, so as to make the second sub-pixels respectively receive a corresponding second data signal. The amplitude of the first scan signal is different from the amplitude of the second scan signal, and N and i are positive integers.

Abstract: An LCD panel with function of compensating feed-through effect includes plural groups of pixels, a gate-driving circuit, a data-driving circuit, and a gamma voltage generator. Each group of pixels includes first pixel and second pixel. The first pixel and the second pixel share a data line, and are respectively coupled to first gate line and second gate line. When the gate-driving circuit drives the first gate line, the gamma voltage generator provides un-compensated gamma voltages for the data-driving circuit writing data to the first pixel. When the gate-driving circuit drives the first and the second gate lines at the same time, the gamma voltage generator provides gamma voltages compensated by a compensating voltage level for the data-driving circuit writing data to the second pixel. In this way, the feed-through effect suffered by the second pixel is compensated, so that each pixel of the LCD panel can display with correct brightness.

Abstract: A display device includes a substrate, a plurality of first signal lines, a plurality of second signal lines, and a plurality of first signal internal links. The first signal lines and the second signal lines are crossed and disposed in a display region of the substrate. The first signal internal links are disposed in the display region of the substrate, wherein each of the first signal internal links is electrically connected to a corresponding first signal line and disposed between two adjacent second signal lines. Each of the first signal internal links intersects the first signal lines, and the number of intersection points of each of the first signal internal links and the first signal lines is the same.

Abstract: An LCD panel with function of compensating feed-through effect includes plural groups of pixels, a gate-driving circuit, a data-driving circuit, and a gamma voltage generator. Each group of pixels includes first pixel and second pixel. The first pixel and the second pixel share a data line, and are respectively coupled to first gate line and second gate line. When the gate-driving circuit drives the first gate line, the gamma voltage generator provides un-compensated gamma voltages for the data-driving circuit writing data to the first pixel. When the gate-driving circuit drives the first and the second gate lines at the same time, the gamma voltage generator provides gamma voltages compensated by a compensating voltage level for the data-driving circuit writing data to the second pixel. In this way, the feed-through effect suffered by the second pixel is compensated, so that each pixel of the LCD panel can display with correct brightness.

Abstract: An LCD panel with function of compensating feed-through effect includes plural groups of pixels, a gate-driving circuit, a data-driving circuit, and a gamma voltage generator. Each group of pixels includes first pixel and second pixel. The first pixel and the second pixel share a data line, and are respectively coupled to first gate line and second gate line. When the gate-driving circuit drives the first gate line, the gamma voltage generator provides un-compensated gamma voltages for the data-driving circuit writing data to the first pixel. When the gate-driving circuit drives the first and the second gate lines at the same time, the gamma voltage generator provides gamma voltages compensated by a compensating voltage level for the data-driving circuit writing data to the second pixel. In this way, the feed-through effect suffered by the second pixel is compensated, so that each pixel of the LCD panel can display with correct brightness.

Abstract: A method for driving a pixel circuit, which is adapted to drive a first pixel circuit coupled to a first gate line and a second pixel circuit coupled to a second gate line, is disclosed. The first pixel circuit receives display data before the second pixel circuit does. The method provides only one first enable pulse to the first gate line in a frame, and provides a second enable pulse and a third enable pulse to the second gate line in the same frame. The starting time of the second enable pulse is in an enabled time period of the first enable pulse, and the enabled time period of the third enable pulse is after the enabled time periods of the first and second enable pulses.

Abstract: A multiplexer circuit includes multiple groups of switches and multiple groups of control lines. Each control line in each one of the groups of control lines is coupled to a control end of at least one switch in corresponding one of the groups of switches, and each group of control lines is configured for synchronously transmitting an identical group of control signals. A display panel and method for transmitting signals in a display panel is also disclosed herein.

Abstract: A driving method for a display panel is provided. The display panel includes a plurality of data lines, a plurality of scan lines, and a plurality of pixel units coupled to the data lines and the scan lines. The data lines are arranged to input an image data to the pixel units. The scan lines have groups of scan lines, and pixel units coupled to each group of scan lines are coupled to the same data line. The driving method includes: during a first and a second frame, scanning the scan lines one by one in a first and a second scan sequence to enable the pixel units, respectively, wherein the second scan sequence is different from the first scan sequence, and the scan sequence of each group of scan lines in the first scan sequence is different from that in the second scan sequence.

Abstract: A display device includes a substrate, gate lines, data lines, data signal links, and contact vias. The substrate includes a display region, and a peripheral region surrounding the display region. The gate lines, data lines, data signal links, and contact vias are disposed within the display region of the substrate. The gate lines cross the data lines. Each of the data signal links is disposed between adjacent gate lines. Each of the contact vias is disposed between each of the data signal links and a corresponding data line, such that each of the data signal links is electrically connected with the corresponding data line.

Abstract: An LCD device includes a plurality of data lines, a plurality gate lines, a pixel matrix, and a source driver. The pixel matrix includes an mth pixel column and an (m+1)th pixel column. The odd-numbered pixels of the mth pixel column are coupled to an mth data line and corresponding odd-numbered gate lines. The even-numbered pixels of the mth pixel column is coupled to an (m+1)th data line and corresponding even-numbered gate lines. The odd-numbered pixels of the (m+1)th pixel column is coupled to the (m+1)th data line and corresponding odd-numbered gate lines. The even-numbered pixels of the (m+1)th pixel column is coupled to an (m+2)th data line and corresponding even-numbered gate lines. The gate driver outputs the data driving signals having a first polarity to the odd-numbered data lines, and outputs the data driving signals having a second polarity to the even-numbered data lines.

Abstract: A method for driving a display panel includes in a first time slot of a polarity inversion period turning on a plurality of first pixels in a first row via a first scan line, and providing a common voltage with a first potential; in a second time slot of the polarity inversion period turning on a plurality of second pixels in the first row via a second scan line, and providing the common voltage with a second potential; in a third time slot of the polarity inversion period turning on a plurality of first pixels in a second row via a third scan line, and providing the common voltage with the second potential; and in a fourth time slot of the polarity inversion period turning on a plurality of second pixels in the second row via a fourth scan line, and providing the common voltage with the first potential.

Abstract: A liquid crystal display panel includes a sub-pixel array, a plurality of scan lines, and a plurality of data lines. The sub-pixel array has a plurality of sub-pixels arranged in array. Any two neighboring scan lines of the scan lines and a row of the sub-pixels disposed between the two neighboring scan liens are electrically connected. The sub-pixels arranged in odd rows are electrically connected to the odd-numbered data lines, and the sub-pixels arranged in even rows are electrically connected to the even-numbered data lines. Thus, the liquid crystal display panel is able to reduce mura phenomenon through the above-mentioned layout. A driving method of the above-mentioned liquid crystal display panel is also provided.

Abstract: A contact pad array is provided. The contact pad array includes a plurality of first contact pads and a plurality of second contact pads. The first contact pads are arranged along the first direction. Each first contact pad includes two first lengthwise sides and two widthwise sides. The second contact pads are arranged along the first direction. Each second contact pad includes two second lengthwise sides and two second widthwise sides. The length of the second lengthwise side is substantially shorter than that of the first lengthwise side, and the width of the second widthwise side is substantially larger than that of the first widthwise side. The projection of the first widthwise side of each first contact pad on the first direction is completely within the projection of the second widthwise side of the corresponding second contact pad on the first direction.

Abstract: A HSD display device is adapted to receive data from a signal source and includes multiple pixel sets. Each pixel sets includes first pixel and second pixel. The first pixel is electrically coupled to a first data line and a first gate line. The second pixel is electrically coupled to the first pixel and a second gate line. The first gate line and the second gate line respectively are for controlling the first pixel and the second pixel whether to receive the data. In a driving method of the HSD display device, a common voltage is provided to the first and second pixels, and the common voltage is modulated to have two different voltage levels at a same side of a data central voltage. The data central voltage is an average of data voltages with different polarities from the signal source for displaying a same gray level.

Abstract: A contact pad array is provided. The contact pad array includes a plurality of first contact pads and a plurality of second contact pads. The first contact pads are arranged along the first direction. Each first contact pad includes two first lengthwise sides and two widthwise sides. The second contact pads are arranged along the first direction. Each second contact pad includes two second lengthwise sides and two second widthwise sides. The length of the second lengthwise side is substantially shorter than that of the first lengthwise side, and the width of the second widthwise side is substantially larger than that of the first widthwise side. The projection of the first widthwise side of each first contact pad on the first direction is completely within the projection of the second widthwise side of the corresponding second contact pad on the first direction.

Abstract: An LCD panel with function of compensating feed-through effect includes plural groups of pixels, a gate-driving circuit, a data-driving circuit, and a gamma voltage generator. Each group of pixels includes first pixel and second pixel. The first pixel and the second pixel share a data line, and are respectively coupled to first gate line and second gate line. When the gate-driving circuit drives the first gate line, the gamma voltage generator provides un-compensated gamma voltages for the data-driving circuit writing data to the first pixel. When the gate-driving circuit drives the first and the second gate lines at the same time, the gamma voltage generator provides gamma voltages compensated by a compensating voltage level for the data-driving circuit writing data to the second pixel. In this way, the feed-through effect suffered by the second pixel is compensated, so that each pixel of the LCD panel can display with correct brightness.

Abstract: A method for driving an LCD device having a plurality of sets of gate lines is disclosed. The method includes sequentially enabling odd gate lines of a first set of gate lines in ascending order for writing first-polarity data into corresponding pixels based on a first common voltage during a first interval, sequentially enabling even gate lines of the first set of gate lines in ascending order for writing second-polarity data into corresponding pixels based on a second common voltage during a second interval, sequentially enabling even gate lines of a second set of gate lines in descending order for writing second-polarity data into corresponding pixels based on the second common voltage during a third interval, and sequentially enabling odd gate lines of the second set of gate lines in descending order for writing first-polarity data into corresponding pixels based on the first common voltage during a fourth interval.