Abstract: A liquid crystal display panel and its driving circuit, manufacturing method are disclosed. The driving circuit has a first switching element. The first terminal of the first switching element is connected to one data line of the liquid crystal display panel. At the array manufacturing process stage, the control terminal of the first switching element is input a first reference voltage. The second terminal of the first switching element is connected to a first discharge circuit. During the stage to drive the liquid crystal display panel to display or to test the liquid crystal display panel, the control terminal of the first switching element is input a first control signal. The second terminal of the first switching element is input a data signal. By the aforementioned ways, it can simultaneously achieve an ESD protection and to save the panel space to be favorable for narrow frame design.

Abstract: Disclosed is a method and system of gesture recognition in a touch display device, which is able to predetermine gesture inputs possibly to be made by a user prior to the completion of the user's touch input, and enable a display unit to display all possible similar gesture inputs so as to provide an instruction (or navigation guidance) for the user. Thus, when using a large-sized touch display device, the user does not have to perform touch operations widely throughout the screen of the display device, because the system can recognize the similar gesture inputs in advance, which renders it easier for the user to operate on the touch display device, thereby obtaining a better user experience.

Abstract: A gate driver on array (GOA) and a liquid crystal display are disclosed. The GOA circuit includes a plurality of cascaded GOA units and a plurality of pull-down maintaining circuits. The cascaded GOA units are configured for respectively outputting gate driving signals of first level signals to charge corresponding horizontal scanning lines within a display area when being controlled by a plurality of clock signals. Each of the pull-down maintaining circuits corresponds to at least two cascaded GOA units, and each of the pull-down maintaining circuits is configured for maintaining the corresponding at least two cascaded GOA units to output second level signals as the gate driving signals during a non-operation period. As described above, the disclosure can reduce the amount of the pull-down maintaining circuits, so as to decrease the width of the layout of the GOA circuit to meet the need to design a narrow-frame liquid crystal display.

Abstract: Provided is a touch control display penal and a touch control circuit thereof. A test signal line and a touch control signal line are redesigned without any change in a conventional pixel structure, such that the touch control circuit as formed has both a test function and a touch detection function. Therefore, not only the manufacturing costs of an in-cell touch display device are effectively reduced, but the manufacturing procedure is simplified, and the yield rate of the touch display panel is improved as well.

Abstract: A method can include determining, based on learned parameter values, an intrinsic interest and an affinity for the user to be influenced to visit the website, determining, using the learned parameter values, intrinsic interest, and affinity for the user to be influenced to visit the website, a first probability indicating a likelihood that the user will, in response to viewing a badge notification, turn off notifications or delete an app and a second probability indicating a likelihood that the user will, in response to viewing the badge notification on the app, visit a website, in response to determining the second probability is greater than a threshold larger than the first probability, causing the app to include the badge notification when displayed on the user device.

Abstract: The invention provides a display panel and a gate driving circuit thereof including multiple stages of gate driving units. Each gate driving unit includes: a first pulling control circuit for outputting a first pulling control signal at a first node; a first pulling circuit for generating a gate driving signal according to the first pulling control signal and a first clock signal; a second pulling control circuit for outputting a second pulling control signal; and a second pulling circuit for pulling levels at the first node and an output terminal of the gate driving signal according to the second pulling control signal. A frequency of the second pulling control signal is lower than a frequency of the first clock signal but higher than a refresh rate of the display panel. The invention can prevent thin film transistor characteristic drift and thereby improve reliability of the gate driving unit.

Abstract: An array substrate with a data line sharing structure is described. The array substrate comprises a source driver; a plurality of scan lines for receiving a scan signal wherein the scan lines comprise a plurality of odd scan lines and even scan lines; and a plurality of data lines for correspondingly receiving a data signal of the source driver wherein the data lines comprise a plurality of odd data lines and even data lines which are sequentially arranged; wherein the scan lines and the data lines are insulatedly interlaced in an array, each pixel region comprises a data line and at least two scan lines, each pixel region is composed of a plurality of sub-pixels with different color types correspondingly, and the drive polarities of the sub-pixels with the same color types in different pixel regions comprises a positive polarity and a negative polarity based on the data signal.

Abstract: A gate driving circuit and an array substrate using the same are described. The gate driving circuit pulls up and pulls down the voltage level of the node in one display frame by a first voltage signal of a second driving module and a second voltage signal of a third driving module to control the high level and low level respectively of scan signal in the scan output terminal for sequentially writing data signal to all the first row sub-pixels, all the second row sub-pixels and all the third row sub-pixels of the one display frame in order to prevent the sub-pixels from RC delay and color deviation, thereby improving the display quality of the LCD.

Abstract: The present disclosure proposes a driving circuit. The driving circuit includes a gate-driver on array (GOA) unit at n stages and n scan lines. A scan line is arranged on the GOA unit at every stage. GOA units at any two neighboring stages arranged at both sides of the scan line. The GOA unit near the first clock signal line is connected to the first clock signal line. The GOA unit near the second clock signal line is connected to the second clock signal line. The nth stage GOA unit couples to an (n?1)th stage GOA unit and an (n+1)th stage GOA unit.

Abstract: Disclosed are a pixel structure, an array substrate, and a display panel. In the pixel structure, a stabilizing line is configured to provide a stabilized signal to each pixel unit in a corresponding pixel unit group. When a high grayscale image is displayed, the stabilized signal provided by the stabilizing line is the same as a data signal received by a pixel unit in a turned-on state in the corresponding pixel unit group. Light transmittance and picture contrast of the display panel can be improved when the high grayscale image is displayed.

Abstract: A liquid crystal display panel and its driving circuit, manufacturing method are disclosed. The driving circuit has a first switching element. The first terminal of the first switching element is connected to one data line of the liquid crystal display panel. At the array manufacturing process stage, the control terminal of the first switching element is input a first reference voltage. The second terminal of the first switching element is connected to a first discharge circuit. During the stage to drive the liquid crystal display panel to display or to test the liquid crystal display panel, the control terminal of the first switching element is input a first control signal. The second terminal of the first switching element is input a data signal. By the aforementioned ways, it can simultaneously achieve an ESD protection and to save the panel space to be favorable for narrow frame design.

Abstract: The present disclosure provides a COA array substrate and a display device. The COA array substrate includes a plurality of gate lines; a plurality of data lines; and a plurality of pixel units. Each of the pixel units includes a pixel electrode and a common electrode. The common electrode includes a lower common electrode and an upper common electrode. The lower common electrode is disposed on one of the data lines, and the upper common electrode is disposed on one of the gate lines. The present disclosure solves a light leakage problem and problems that an aperture ratio and a transmittance are low in a liquid crystal panel.

Abstract: Disclosed are a pixel unit structure and a display device. The pixel unit structure includes a thin film transistor formed on a substrate, and a first insulating layer, a first transparent electrode layer, a second insulating layer, and a second transparent electrode layer formed in sequence from bottom to top above the thin film transistor. A storage capacitor is formed between the first transparent electrode layer and the second transparent electrode layer.

Abstract: The present disclosure proposes a driving circuit. The driving circuit includes gate-driver on array (GOA) unit sets at n stages, an nth stage GOA unit set corresponding to an nth row of primary scanning line and an (n?k)th row of secondary scanning line. The GOA unit set includes two GOA units arranged at the corresponding sides of the scanning line set. The nth stage GOA unit arranged at a first side where the scanning line set is arranged is connected to the nth stage GOA unit arranged at a second side where the scanning line set is arranged.

Abstract: The present disclosure provides a scanning driving circuit and a flat panel display. The scanning driving circuit includes a plurality of cascaded scanning driving units, and each scanning driving unit includes an input circuit receiving a higher level transmission signal, a first clock signal and a second clock signal and outputting a present level transmission signal and a pull-up control signal; an output circuit receiving signal from the input circuit and outputting the lower level transmission signal; a control circuit receiving the first pull-down signal, the second pull-down signal and the pull-up control signal and outputting the scanning driving signal; a scan line receiving scanning driving signal and controlling the pixel unit, in order to meeting the driving demand of the charge sharing pixel while ensure the high aperture ratio of the charge sharing pixel and not affect the reliability of the scanning driving circuit.

Abstract: A liquid crystal display panel and its driving circuit, manufacturing method are disclosed. The driving circuit has a first switching element. The first terminal of the first switching element is connected to one data line of the liquid crystal display panel. At the array manufacturing process stage, the control terminal of the first switching element is input a first reference voltage. The second terminal of the first switching element is connected to a first discharge circuit. During the stage to drive the liquid crystal display panel to display or to test the liquid crystal display panel, the control terminal of the first switching element is input a first control signal. The second terminal of the first switching element is input a data signal. By the aforementioned ways, it can simultaneously achieve an ESD protection and to save the panel space to be favorable for narrow frame design.

Abstract: A method for manufacturing a LTPS array substrate includes: forming a source electrode and a drain electrode on a substrate, forming a poly-silicon layer in a first region and a second region of the substrate including the source electrode and the drain electrode, such that the poly-silicon layer of the first region has a thickness greater than that of the second region and the poly-silicon layer of the first region partially covers the source electrode and the drain electrode; passivating a surface of the poly-silicon layer in order to turn a part of the poly-silicon layer of the second region and the first region that is adjacent to the surface into an insulating layer; and forming a gate electrode on the insulating layer between the source electrode and the drain electrode. The LTPS technical process is simple and can reduce the producing costs.

Abstract: A liquid crystal pixel structure is disclosed. The liquid crystal pixel structure includes: a pixel electrode, located in a pixel aperture. The pixel electrode has two or more display domains applied with the same voltage level. The pixel electrode extends in different directions in the display domains. A gate line is located at an intersection of the display domains. An edge of the intersection of the display domains overlaps the gate line. A data line is located at an edge of the pixel aperture. The pixel electrode is controlled by the gate line and the data line via a transistor. The aperture of the pixel structure is divided by the gate lines. Therefore, the edge of the display domains overlaps the gate lines. The dark line can be covered by the gate lines and thus the aperture rate and the transparent rate can be raised.

Abstract: A gastro-electrical activity mapping system and method may comprise a catheter insertable through a natural orifice into the gastro-intestinal (GI) tract and comprising an array of electrodes for contacting an interior surface of a section of the GI tract to detect electrical potentials at multiple electrodes, and comprises a signal analysis and mapping system arranged to receive and process electrical signals from multiple electrodes of the array and spatially map GI smooth muscle electrical activity as an activation time map, a velocity map, or an amplitude map, which may be in the form of contour plots and may be mapped on an anatomical computer model of at least the section of the GI tract and may be animated.

Abstract: The present application discloses a method of performing photo alignment to a liquid crystal panel and a mask, the method including: disposing a mask in one side of a liquid crystal panel, the mask including at least two regions, the two regions makes incident lights passed and generating emission lights with different polarization directions respectively; making the incident light passed through the mask, to generate the emission lights with different polarization direction, and perform a photo alignment to the different regions of the liquid crystal panel. By the approach above, the process of the photo alignment is changed in the present application, thereby reducing the time of the photo alignment process and increase productivity.