Abstract:
The present disclosure relates to a driving method and a driving device of display panels. The driving method includes: dividing a saturation interval of an original image frame to be displayed by a display panel into a plurality of sub-saturation intervals; obtaining saturation values corresponding to each of the pixels in the original image frame; calculating numbers of pixels in the original image frame falling within each of the sub-saturation internals in accordance with the saturation values corresponding to each of the pixels. In this way, the backlight brightness outputted by the backlight module may be adjusted in accordance with the saturation values of the original image frame so as to enhance the low brightness issue when a pure-color image is displayed by the display panel configured with RGBW sub-pixels.
Abstract:
The present disclosure discloses a display driving circuit, a display screen and a terminal device. The display driving circuit comprises a driving IC, multiple scanning lines and multiple data lines; one kind of the scanning line and the data line is annular arrangement; the other kind of the scanning line and the data line is radial arrangement; the driving IC is connected to the scanning lines and the data lines. The present invention can be better adapted to circular, round or elliptical display panel.
Abstract:
The present application discloses a touch liquid crystal display panel, color filter substrate and touch display apparatus, the display and touch of the touch liquid crystal display panel adapts the time sharing driving way, in a first time period of the cycle, the scanning for the n rows of the gate scanning lines is performed; in a second time period of the cycle, the touch detecting scanning is performed; and is performed sequentially alternatively until the completion of the frame of the image displayed, wherein k times scan the gate scanning line is performed in one cycle, the thickness of the RGB color layer corresponding to the scan for the (k−1) n+1th row of the gate scanning line is smaller than the thickness of the RGB color layer of other rows, k≥2, n≥1. By the above approach, the present application can avoid dark line and improve the display quality.
Abstract:
A source driving circuit is provided. The source driving circuit includes a digital-to-analog conversion module configured for converting raw image data into gray-scale image data; an optimization module configured for obtaining an optimal output sequence of the gray-scale values in pixel units for each row in a display panel and outputting the gray-scale values of each pixel in pixel units corresponding to data lines by following the order of the optimal output sequence to form a first image data; and a buffer module configured for enhancing a load driving capability of the first image data outputted by the optimization module.
Abstract:
The disclosure provides a liquid crystal display driving circuit and a liquid crystal display device. The liquid crystal display driving circuit includes a content adaptive brightness control circuit and a Gamma voltage adjustment circuit, when the content adaptive brightness control circuit is turned on, the brightness of the backlight module is switched from first backlight brightness to second backlight brightness under the control of the content adaptive brightness control circuit, when the brightness of the backlight module is the first backlight brightness, the Gamma voltage adjustment circuit outputs a first Gamma voltage for adjusting grayscale brightness of the liquid crystal display to be first grayscale brightness, when the brightness of the backlight module is the second backlight brightness, the Gamma voltage adjustment circuit outputs a second Gamma voltage for adjusting the grayscale brightness of the liquid crystal display to be second grayscale brightness.
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 provides a liquid crystal display device, comprising a backlight part, and the liquid crystal display device includes an image collection circuit, a gray scale judgment circuit, a PWM signal generation circuit and a LED driving circuit, and the backlight part is electrically coupled to the LED driving circuit; the image collection circuit obtains a gray scale of a target image and transmits the gray scale of the target image to the gray scale judgment circuit, and the gray scale judgment circuit compares the gray scale of the target image with a preset gray scale threshold to generate a control signal to be transmitted to the PWM signal generation circuit; the PWM signal generation circuit generates a PWM signal of which a duty ratio is zero to be transmitted to the LED driving circuit, and the LED driving circuit cuts off an input current of the backlight part.
Abstract:
The present disclosure relates to a liquid crystal panel and the driving circuit. The liquid crystal panel includes a plurality of source driving circuits and a plurality of sub-pixel rows extending along a row direction. Each of the sub-pixel rows includes a plurality of sub-pixels of different colors and the sub-pixels are arranged periodically along the row direction. Within one scanning frame, polarity of driving voltage of at least one sub-pixel within the arranging period is opposite to that of other sub-pixels. Each of the source driving circuit includes at least two output ends respectively connecting to at least two sub-pixels having the same polarity of driving voltage within the same scanning frame to provide the driving voltage of the same polarity to the at least two sub-pixels. In this way, the power consumption of the source driving circuit may be reduced.
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.
Abstract:
A force touch liquid crystal display (LCD) and a method of fabricating the same are proposed. The force touch LCD includes: a touch panel and an LCD module. The LCD module includes a thin-film transistor (TFT) substrate, a liquid crystal layer, and a color filter substrate layered subsequently. The force touch LCD further includes a force film and a shield metal layer. The force film is formed on a surface of the touch panel, and the surface facing the LCD module. The shield metal layer is arranged on a surface of the color filter substrate. The shield metal layer can prevent the LCD display signal from being disturbed by the touch panel signal and vice versa to ensure the accuracy of display and touch.