Abstract: A capacitive touch panel provides a partially high-resolution by mixing multiple resolutions. The capacitive touch panel includes a first electrode layer, a second electrode layer, an insulating layer, and a single one integrated circuit chip. The first electrode layer and the second electrode layer respectively include multiple sensor electrodes disposed with uneven density, so that a part of the touch panel has higher resolution, and other part of the touch panel has lower resolution. The capacitive touch panel provides partially higher resolution by adjusting the distribution of the electrodes without increasing the number of pins of the integrated circuit chip.

Abstract: A capacitive touch panel provides a partially high-resolution by mixing multiple resolutions. The capacitive touch panel includes a first electrode layer, a second electrode layer, an insulating layer, and a single one integrated circuit chip. The first electrode layer and the second electrode layer respectively include multiple sensor electrodes disposed with uneven density, so that a part of the touch panel has higher resolution, and other part of the touch panel has lower resolution. The capacitive touch panel provides partially higher resolution by adjusting the distribution of the electrodes without increasing the number of pins of the integrated circuit chip.

Abstract: A touch panel includes a substrate, a first sensing series, a second sensing series, a transmitting IC, a receiving IC, a plurality of first control-signal lines, a plurality of second control-signal lines, a flexible circuit board and a control unit. The transmitting IC is configured to transmit a signal to the first sensing series. The receiving IC is configured to receive a signal from the second sensing series. The flexible circuit board has a junction end bonded on a bonding area of the substrate, and is connected to the first and second control-signal lines. The control unit transmits a first control signal and a second control signal respectively to the transmitting IC and the receiving IC through the flexible circuit board.

Abstract: Disclosed herein is a touch panel, which includes a first sensing substrate, a second sensing substrate and an anisotropic conducting film. The first sensing substrate includes at least one first sensing series, at least one first signal transmission line, and at least one second signal transmission line. The first sensing series extends in a first direction. The first signal transmission line is connected to the first sensing series. The second substrate faces the first substrate, and comprises at least one second sensing series extending in a second direction crossed with the first direction. The anisotropic conducting film is disposed between the first sensing substrate and the second sensing substrate, and is electrically connected to the second signal transmission line and the second sensing series.

Abstract: A gate driving method for a liquid crystal display (LCD) and a gate driver thereof are provided. The LCD has a plurality of scan lines. The method starts by generating a gate driving signal. A correction signal is superposed to the gate driving signal to generate a corrected gate driving signal and to reduce a high voltage level of the gate driving signal, wherein a polarity of the correction signal is opposite to a polarity of the gate driving signal. The corrected gate driving signal is then outputted to drive one of the corresponding scan lines.

Abstract: A method for driving a flat panel display is provided. The flat panel display has n scan lines, wherein n is a positive integer. Each of the scan lines is coupled to a plurality of pixels. The driving method according to the invention includes the steps as follows: when pixels coupled to a kth scan line are enabled, pixels coupled to the scan lines from the first to k?1th are disabled and pixels coupled to at least a part of scan lines from k+1th to nth are enabled, thus pre-charging the enabled pixels of scan lines from k+1th to nth is performed thereby, wherein k is a positive integer.

Abstract: A circuit for amplifying a display signal transmitted to a repair line by using a non-inverting amplifier is disclosed, which comprises a voltage follower, a non-inverting amplifier, a repair line, a thin film transistor (TFT) and a liquid crystal (LC) capacitor. The voltage follower is electrically connected to a data driver chip to thereby provide a display signal to the non-inverting amplifier. The non-inverting amplifier amplifies the display signal to thus obtain an amplified display signal, and transmits the amplified display signal to the TFT and the LC capacitor through the repair line. The amplified display signal is kept at a desired voltage level when the LC capacitor receives the amplified display signal.

Abstract: A liquid crystal display panel module includes a display panel, a plurality of source drivers, a plurality of gate drivers, a gamma reference voltage generator and a timing controller, in which the timing controller controls operations of the gate drivers, of the source drivers and of the gamma reference voltage generator, so that the source drivers can, based on one set of gamma reference voltages, output single-color data groups to corresponding display sub-areas in the display panel, respectively.

Abstract: A method for improving the EMI performance of an LCD device is disclosed, adapting for a point-to-point transistor transistor logic interface of the LCD device. The disclosed method comprises the following steps: receiving a plurality of image data based on a data CLK signal; providing a first CLK signal and a second CLK signal to a plurality of source drivers by a timing controller, wherein the frequencies of the first CLK signal and the second CLK signal are smaller than the frequency of the data CLK signal, the phase of the first CLK signal is different from the phase of the second CLK signal; and the timing controller transmitting a plurality of first image data to the plurality of source drivers based on the first CLK signal, and the timing controller transmitting a plurality of second image data to the plurality of source drivers based on the second CLK signal.

Abstract: A circuit for amplifying a display signal transmitted to a repair line by using a non-inverting amplifier is disclosed, which comprises a voltage follower, a non-inverting amplifier, a repair line, a thin film transistor (TFT) and a liquid crystal (LC) capacitor. The voltage follower is electrically connected to a data driver chip to thereby provide a display signal to the non-inverting amplifier. The non-inverting amplifier amplifies the display signal to thus obtain an amplified display signal, and transmits the amplified display signal to the TFT and the LC capacitor through the repair line. The amplified display signal is kept at a desired voltage level when the LC capacitor receives the amplified display signal.

Abstract: A circuit for amplifying a display signal transmitted to a repair line by using a non-inverting amplifier is disclosed, which comprises a voltage follower, a non-inverting amplifier, a repair line, a thin film transistor (TFT) and a liquid crystal (LC) capacitor. The voltage follower is electrically connected to a data driver chip to thereby provide a display signal to the non-inverting amplifier. The non-inverting amplifier amplifies the display signal to thus obtain an amplified display signal, and transmits the amplified display signal to the TFT and the LC capacitor through the repair line. The amplified display signal is kept at a desired voltage level when the LC capacitor receives the amplified display signal.

Abstract: A gate driving method for a liquid crystal display (LCD) and a gate driver thereof are provided. The LCD has a plurality of scan lines. The method starts by generating a gate driving signal. A correction signal is superposed to the gate driving signal to generate a corrected gate driving signal and to reduce a high voltage level of the gate driving signal, wherein a polarity of the correction signal is opposite to a polarity of the gate driving signal. The corrected gate driving signal is then outputted to drive one of the corresponding scan lines.

Abstract: A gate driving method for a liquid crystal display (LCD) and a gate driver thereof are provided. The LCD has a plurality of scan lines. The method starts by generating a gate driving signal. A correction signal is superposed to the gate driving signal to generate a corrected gate driving signal and to reduce a high voltage level of the gate driving signal, wherein a polarity of the correction signal is opposite to a polarity of the gate driving signal. The corrected gate driving signal is then outputted to drive one of the corresponding scan lines.

Abstract: A panel module and the power saving method used thereon, which use a timing controller to receive and compare a first frame image data and a second frame image data in order to obtain an image data comparison result and accordingly determine whether a plurality of source drivers, a plurality of gate drivers and a DC-DC converter have to enter a power saving mode.

Abstract: A timing controller including a memory and a memory controller is provided. The memory includes an odd-field block and an even-field block. The memory controller is coupled to the memory and controls the memory. When two of a first, a second and a third gate output enable signals output by the timing controller are active, the memory is controlled to output the data of the (I?1)th scan line stored in the odd-field block. When one of the first, the second and the third gate output enable signals output by the timing controller is active, and the other two signals are inactive, the memory is controlled to output the data of Jth scan line stored in the even-field block and write an odd-field field data of the (J+1)th scan line to the odd-field block and write an even-field field data of the (J+1)th scan line to the even-field block.

Abstract: A method and apparatus for gamma correction and a flat panel display using the same. Weighted values corresponding to red, green and blue of an image signal are respectively evaluated to determine the dominant color in the image signal, and a Gamma correction based on the dominant color is then performed, thereby obtaining displaying quality similar with that obtained by independently performing red, green, or blue Gamma correction.

Abstract: A display panel for a liquid crystal display comprising a timing controller and a plurality of source drivers is provided. The timing controller receives a differential signal (LVDS/TMDS/DVI) to generate a plurality of TTL signals and a sync signal. Each of the source drivers comprises at least one bus directly connected to the timing controller to receive corresponding TTL signal. The timing controller comprises a clock line, coupled to the source drivers for transmission of the sync signal. Each TTL signal comprises a corresponding image information. The TTL signals, sequentially transmitted by the bus, conform to the transistor-to-transistor logic (TTL) standard.

Abstract: A method and apparatus for gamma correction and a flat panel display using the same. Weighted values corresponding to red, green and blue of an image signal are respectively evaluated to determine the dominant color in the image signal, and a Gamma correction based on the dominant color is then performed, thereby obtaining displaying quality similar with that obtained by independently performing red, green, or blue Gamma correction.

Abstract: A liquid crystal module for flat panel display comprising a glass substrate, a plurality of source drivers, a control board, and at least one bus. The source drivers coupled to the glass substrate utilize the chip on glass (COG) technology. The control board receives a plurality of data signals, a power signal and a gamma correction signal. The at least one bus coupled to the control board and at least one source driver, passes the data signals, the power signal and the gamma correction signal. The source drivers couple to the control board via the bus, each receiving a corresponding data signal. The data signals, conforming to transistor-transistor logic (TTL) standard, are transmitted sequentially on the bus.

Abstract: An inversion method for use in a liquid crystal display having pluralities of pixels. First, at least one inversion signal is provided to determine a polarity. A data voltage is then generated according to the polarity and a data signal. Thereafter, a scan signal is provided to activate a pixel, such that the data voltage is converted to luminance. The inversion signal is a non-periodic signal. When the scan signal activates the pixel, the inversion signal provides the random alternative of a first level and a second level.