Abstract:
The present application discloses a bilateral driving device and a tablet display. The bilateral driving device includes a first source driver, a second source driver and at least two driving signal lines connected to the first source driver, a second source driver, wherein the connection of the middle site of the at least two driving signal lines is not parallel to the specific edge of the display panel. By adapting the embodiment of the present application can utilize the visual characteristics of the human eye, the connection of the middle site of the at least two driving signal lines is not parallel to the edge of the display panel to confuse the dark spots and bright spots, to enhance brightness uniformity of the display panel, and improve the display quality.
Abstract:
The present disclosure discloses a mutual capacitive in-cell display device and the driving method thereof. The mutual capacitive in-cell display device comprises: a first substrate; a touch panel, which is provided on the first substrate; a driver integrated circuit, which is used to send a first enable signal and a second enable signal; multiple gate lines, each gate line comprising a first switching transistor, the control terminal of the first switching transistor being connected to the driver integrated circuit; multiple data lines, each data line comprising a second switching transistor, the control terminal of the second switching transistor being connected to the driver integrated circuit. When the first switching transistor is turned on in responses to the first enable signal and the second switching transistor is turned on in response to the second enable signal in standby mode, the multiple data lines are connected to the touch panel to discharge.
Abstract:
The present invention provides a pixel rendering method, including: obtaining gray scales of three primary color components of original image pixels; converting the gray scales of three primary color components of the original image pixels into three primary color components of compensation image pixels and gray scales of initial compensation components; sampling a compensation image, and extracting the former two primary color components of the former compensation image pixel and the third primary color component of the latter compensation image pixel in each set and grays scales of the compensation components; setting the former two primary color components of the former compensation image pixel and the third primary color component of the latter compensation image pixel in each set and the grays scales of the compensation components to be a gray scale of each corresponding sub pixel of each row of display pixels.
Abstract:
The present invention discloses a display panel and a display device, comprising a GOA stage transfer circuit, n scan lines and a signal process device, wherein the GOA stage transfer circuit comprises n GOA units which are cascade connected, and an ith GOA unit in the GOA stage transfer circuit is employed to charge an ith scan line, and the signal process device is coupled to an output end of any one or more of GOA units in the GOA units which are cascade connected, and the signal process device is employed to compare a signal outputted by the output end of any one or more of GOA units in the GOA units which are cascade connected with a target setting value to obtain a comparison result, and to adjust a value of a register in a driving chip according to the comparison result.
Abstract:
A capacitive sensing device, a touch screen, and an electronic equipment are disclosed. The capacitive sensing device includes a first conductive line extended along a first direction and a second conductive line extended along a second direction. The first conductive line is insulated from the second conductive line and the first conductive line and the second conductive line are disposed in an overlapping manner. The first conductive line includes first sensing electrodes and a first connecting bridge. The second conductive line includes second sensing electrodes and a second connecting bridge. The second connecting bridges bypass the first connecting bridges to avoid a short circuit or an open circuit in overlapping portions because of an electrostatic discharge. The first and second connecting bridges are smooth conductive lines. The present invention effectively reduces a probability of occurrence of electrostatic discharge, and is also simple and the transmittance is also higher.