Abstract: There are disclosed a driving circuit of an organic light emitting display panel and an organic light emitting display apparatus.

Abstract: The present disclosure provides a shift register unit, a gate driving circuit and a display apparatus. The shift register unit comprises: a first latch module having a first input terminal connected to a first clock signal terminal or a second clock signal terminal, a second input terminal for receiving a pulse signal, and an output terminal; and a second latch module having a first input terminal connected to the first clock signal terminal or the second clock signal terminal, a second input terminal connected to the output terminal of the first latch module, and an output terminal connected to a signal output terminal of the shift register unit. The first input terminal of the first latch module and the first input terminal of the second latch module are connected to the same signal terminal.

Abstract: The embodiments of the present invention provide an OLED display device and a method for correcting image sticking of an OLED display device. The OLED display device comprises an OLED pixel array; a pixel detecting circuit for detecting aging degrees of respective OLED pixels in the OLED pixel array; wherein respective OLED pixel are aged by displaying an aging image on the OLED pixel array, such that the aging degrees of respective OLED pixels are the same; the brightness of each pixel in the aging image is inversely proportional to the aging degree of the pixel. According to the OLED display device and the method provided by the embodiments of the present invention, various approaches can be applied for detecting the aging degrees of respective OLED pixels in the OLED pixel array, such that the image sticking of the OLED display device can be corrected by adjusting the aging degrees of respective OLED pixels.

Abstract: The embodiments of the present invention provide a display panel and a display apparatus having the display panel. The display panel includes: an array substrate, a printed circuit board, a chip on film. One end of the chip on film is attached to a connection region of the array substrate, and the other end of the chip on film is attached to the printed circuit board, and the surface of the chip on film disposed with a chip faces the array substrate, and the connection region is disposed at a side of the array substrate away from a light-emitting surface.

Abstract: Embodiments of the invention provide a parallax barrier and a display device. The parallax barrier comprises: first and second substrates; liquid crystal, filled between the two substrates; a plurality of strip-like electrode units, disposed parallel to each other and at an interval on a side of the first substrate close to the liquid crystal; a first alignment layer, disposed above the strip-like electrode units; a second alignment layer, disposed on a surface of the second substrate opposed to the first substrate, wherein, a aligning direction of the first alignment layer is perpendicular to an extending direction of the strip-like electrode units, and aligning directions of the first and second alignment layer are opposite, wherein, after the strip-like electrode units are energized, the liquid crystal directly above the strip-like electrode units are rotated by an angle ranged from 85° to 95° in a plane parallel to the substrates.

Abstract: The present invention provides a pixel driving circuit and a driving method thereof, and a display device. The pixel driving circuit is used for driving a pixel array, wherein each pixel in the pixel array comprises four sub-pixels with different colors, and wherein the pixel driving circuit comprises: at least one first sub-pixel driving chip and at least one second sub-pixel driving chip, wherein the at least one first sub-pixel driving chip each is connected to a part of sub-pixels corresponding thereto in corresponding pixels to drive them, and the at least one second sub-pixel driving chip each is connected to the other part of sub-pixels corresponding thereto in the corresponding pixels to drive them. In the invention, noise interference can be avoided, and the display quality is improved; the cost is reduced; signal transmitting efficiency is increased and the EMI characteristic of products is improved.

Abstract: A display panel optical compensating apparatus, a display panel and a display panel optical compensating method are provided. The display panel optical compensating apparatus comprises a storage unit (1), a data unit (2), a timing control unit (3) and a switch (4). When the switch (4) is in a first position, the timing control unit (3) has no data exchange with the storage unit (1), and the data unit (2) receives compensated data and burns the compensated data into the storage unit (1). When the switch (4) is in a second position, the timing control unit (3) reads the compensated data in the storage unit (1), performs a compensating operation on display data, and outputs compensated display data. The display panel optical compensating apparatus, the display panel and the display panel optical compensating method realize simple structure, flexible operation, high stability, and fast tempo, and are suitable for mass production.

Abstract: There are disclosed a driving circuit of an organic light emitting display panel and an organic light emitting display apparatus.

Abstract: An array substrate, a display panel and a repairing method thereof are provided. In the array substrate, except the last gate line, both ends of each of the remaining gate lines are provided respectively with first leads connected to the gate line; in each group of gate integrated drive circuits, except a first level shift register, an input terminal of every other shift register is provided with a second lead connected to the input terminal; the first lead connected to one of the gate lines and the second lead connected to an input terminal of the shift register at the next level adjacent thereto have an overlapping area (A) therebetween, and are insulated from each other.

Abstract: The power supply device includes an AC-DC conversion unit configured to provide a source DC voltage signal; a first DC-DC conversion unit configured to generate a first DC voltage signal and a second DC voltage signal according to the source DC voltage signal, output the first DC voltage signal to the load through a first output interface and output the second DC voltage signal to the load through a second output interface; a reference voltage signal generation unit configured to generate a reference voltage signal by taking the first DC voltage signal and the second DC voltage signal as input signals, output the reference voltage signal to the load; wherein a voltage value of the reference voltage signal is smaller than a voltage value of the first DC voltage signal and is greater than a voltage value of the second DC voltage signal.

Abstract: The present invention discloses a display device comprising the structure. The pixel structure comprises multiple pixel units arranged in a matrix form, and multiple gate lines and data lines for providing drive to the multiple pixel units, wherein the multiple pixel units are scanned progressively in unit of L rows; the L rows of pixel units being simultaneously scanned among the plurality of pixel units are configured as a pixel block; and at least two adjacent rows of pixel units in the L rows of pixel units being used for displaying different images, wherein L?3. By adopting the pixel structure, the problems of undercharge of a storing capacitor Cs and RC delay of the data lines are alleviated, thus the display uniformity and the display quality of the display device is ensured. The pixel structure is particularly suitable to a large-size ultra-high-resolution display device.

Abstract: A power supply circuit and display apparatus, comprising power source (1), charging/discharging module (2), detecting module (3), the detecting module detects detecting parameter on power-supply path, feeds back corresponding mode signal to the power source according to the detected detecting parameter, and outputs preset operation voltage to load (4); the power source receives the mode signal fed back from the detecting module, outputs power supply voltage corresponding to the mode signal, and charges the charging/discharging module when the mode signal is the low power signal; and the charging/discharging module is discharged to the detecting module when the power source outputs the supply voltage corresponding to the high power signal, and is charged when the power source outputs the supply voltage corresponding to the low power signal.

Abstract: The present invention relates to a heat sinking pad and a printed circuit board. The surface of the heat sinking pad on which electronic components are placed comprises a solder loading area and a solder non-loading area, wherein the solder loading area is used for being coated with solder; and the solder non-loading area comprises heat collection passages for collecting heat on the heat sinking pad and heat dissipation passages communicated with the heat collection passages. Openings of the heat dissipation passages are positioned at edges of the heat sinking pad so as to discharge the heat collected by the heat collection passages to the outside of the heat sinking pad. The heat dissipation to the edges of the heat sinking pad along the heat collection passages and the heat dissipation passages is faster than along the solder loading area, so the heat sinking pad has higher heat dissipation speed.

Abstract: A liquid crystal grating panel, a stereo display device and a display method thereof are disclosed. The liquid crystal grating panel comprises an upper polarizer, an upper substrate, a lower substrate, a first electrode, a second electrode, a third electrode and liquid crystals; the third electrode is separated from the first electrode through an insulating layer; the liquid crystals are disposed between the upper substrate and the lower substrate; the first electrode is used for generating an electric field with the second electrode at first frame scanning periods of image scanning to form a first grating; and the third electrode is used for generating an electric field with the second electrode at second frame scanning periods of image scanning to form a second grating.

Abstract: The power supply device includes an AC-DC conversion unit configured to provide a source DC voltage signal; a first DC-DC conversion unit configured to generate a first DC voltage signal and a second DC voltage signal according to the source DC voltage signal, output the first DC voltage signal to the load through a first output interface and output the second DC voltage signal to the load through a second output interface; a reference voltage signal generation unit configured to generate a reference voltage signal by taking the first DC voltage signal and the second DC voltage signal as input signals, output the reference voltage signal to the load; wherein a voltage value of the reference voltage signal is smaller than a voltage value of the first DC voltage signal and is greater than a voltage value of the second DC voltage signal.

Abstract: A pixel unit driving circuit provides a method for driving a pixel unit for operating a display device. The circuit comprises four TFT transistors and two capacitors. The display process is divided into three processes, which are a pre-charging phase, a compensation phase and a display phase. As compared with the conventional pixel structure, the nonuniformity and the shift of the threshold voltage of the depleted TFT or the enhanced TFT driving transistor, and the nonuniformity of the OLED voltage may be effectively compensated.

Abstract: The present invention provides a pixel driving circuit and a driving method thereof, and a display device. The pixel driving circuit is used for driving a pixel array, wherein each pixel in the pixel array comprises four sub-pixels with different colors, and wherein the pixel driving circuit comprises: at least one first sub-pixel driving chip and at least one second sub-pixel driving chip, wherein the at least one first sub-pixel driving chip each is connected to a part of sub-pixels corresponding thereto in corresponding pixels to drive them, and the at least one second sub-pixel driving chip each is connected to the other part of sub-pixels corresponding thereto in the corresponding pixels to drive them. In the invention, noise interference can be avoided, and the display quality is improved; the cost is reduced; signal transmitting efficiency is increased and the EMI characteristic of products is improved.

Abstract: The present invention relates to a heat sinking pad and a printed circuit board. The surface of the heat sinking pad on which electronic components are placed comprises a solder loading area and a solder non-loading area, wherein the solder loading area is used for being coated with solder; and the solder non-loading area comprises heat collection passages for collecting heat on the heat sinking pad and heat dissipation passages communicated with the heat collection passages. Openings of the heat dissipation passages are positioned at edges of the heat sinking pad so as to discharge the heat collected by the heat collection passages to the outside of the heat sinking pad. The heat dissipation to the edges of the heat sinking pad along the heat collection passages and the heat dissipation passages is faster than along the solder loading area, so the heat sinking pad has higher heat dissipation speed.

Abstract: The embodiments of the present invention provide a display panel and a display apparatus having the display panel. The display panel includes: an array substrate, a printed circuit board, a chip on film. One end of the chip on film is attached to a connection region of the array substrate, and the other end of the chip on film is attached to the printed circuit board, and the surface of the chip on film disposed with a chip faces the array substrate, and the connection region is disposed at a side of the array substrate away from a light-emitting surface.

Abstract: A power supply circuit and display apparatus, comprising power source (1), charging/discharging module (2), detecting module (3), the detecting module detects detecting parameter on power-supply path, feeds back corresponding mode signal to the power source according to the detected detecting parameter, and outputs preset operation voltage to load (4); the power source receives the mode signal fed back from the detecting module, outputs power supply voltage corresponding to the mode signal, and charges the charging/discharging module when the mode signal is the low power signal; and the charging/discharging module is discharged to the detecting module when the power source outputs the supply voltage corresponding to the high power signal, and is charged when the power source outputs the supply voltage corresponding to the low power signal.