Abstract:
A display panel and a display device are provided. The display panel comprises an upper substrate (10) and a lower substrate (20) cell-assembled, the lower substrate (20) including a base substrate (200), the base substrate (200) including an upper surface (202) close to the upper substrate (10) and a lower surface (203) opposite to the upper surface (202), scattering microstructures (205) being arranged on the lower surface (203) of the base substrate, and a display functional layer being arranged on the upper surface (202) of the base substrate. The display panel can solve a problem that a display device in the prior art cannot meet requirements of ultra-thinning and low cost.
Abstract:
The embodiments of the present disclosure relate to the display technology field, and provide a display control method, a display control device and a display system. The display control method includes: detecting if a glare is presented on the surface of the semi-translucent polarizing film layer on the emergent light side of the display device; generating a driving signal for driving the display device to display a non-black image in a glare compensation region if a glare is detected to be presented on the surface of the semi-translucent polarizing film layer; in which the glare compensation region corresponds to a glare region in the semi-translucent polarizing film layer and the glare region is an region in which a glare is presented. The display control method of the present disclosure may reduce glare intensity when a glare is created on a mirror surface such as a rearview mirror.
Abstract:
The present disclosure relates to the field of display technology, and provides a backlight source and a display device, which address the problem that the misalignment readily occurring between the LED strip and the light guide plate results in a light leakage in the light-emitting diodes and hence a reduced performance of the display device. A backlight source comprises a scattering substrate and a light-emitting diode strip, wherein the light-emitting diode strip comprises a circuit board and light-emitting diodes arranged at intervals on the circuit board, and the scattering substrate comprises recesses at a surface corresponding to the light-emitting diode strip, the recesses corresponding one-to-one with the light-emitting diodes, the light-emitting diodes embedded into the recesses. A display device comprises the backlight.
Abstract:
The present invention discloses a liquid crystal slit grating and a stereoscopic display device, the liquid crystal slit grating includes a first grating substrate and a second grating substrate facing each other, and a plurality of photo spacers supporting between the first grating substrate and the second grating substrate; the stereoscopic display device includes a display panel and said liquid crystal slit grating which is parallel to each other. The liquid crystal slit grating of the present invention provides conditions for accurately controlling effects of the photo spacers on light transmittance or accurately controlling crosstalk caused by the photo spacers. The stereoscopic display device of the present invention provides conditions for improving 3D effect of stereoscopic display device during three dimensionally displaying.
Abstract:
This disclosure provides a display substrate, a display device and a manufacturing method thereof, and belongs to the field of display technologies. The display substrate comprises a base plate, and a blue light inhibition layer arranged on the base plate, wherein the blue light inhibition layer weakens a portion of blue light emitted by a light source. In this disclosure, by forming a blue light inhibition layer in the existing process for manufacturing a display device, it is unnecessary to significantly modify the manufacturing process, and thus the problem of blue light harm in a display device is solved in a simple and cost effective manner.
Abstract:
A substrate for display, a display panel and a display device are provided. The substrate for display comprises a base comprising an upper surface and a lower surface which are opposite to each other. The lower surface of the base is formed with scattering microstructures, and the upper surface of the base is formed with a layer structure for display, thereby achieving ultrathin appearance and low cost of the display device.
Abstract:
Disclosed are a display substrate and a manufacturing method thereof, as well as a display device. The display substrate includes a base substrate, a wire grating polaroid and a light shield layer. The light shield layer is disposed on the base substrate and partly covers a surface of the base substrate. The wire grating polaroid is disposed on the light shield layer at a position corresponding to the light shield layer. The display substrate addresses the problem of reflecting external light by the wire grating polaroid, enhances definition of images viewed by a user and improves user's use experience.
Abstract:
An illumination device, dedicated eyeglasses thereof, analyzer thereof and an illumination system are provided. The illumination device includes a support member and a liquid crystal display panel mounted on the support member, and the liquid crystal display panel is provided with a first polarization sheet only at a light incident side. The liquid crystal display panel in the illumination device emits white light for the information contained therein cannot be observed by naked eye, and hence can be used as an illumination lamp; when the illumination device is viewed through the dedicated eyeglasses or the analyzer, the secret information displayed on the liquid crystal display panel can be observed.
Abstract:
An embodiment of the invention provides a 3D display device and a manufacturing method thereof. The 3D display device includes a display unit; and a birefringent grating stacked at a light emitting side of the display unit, wherein the birefringent grating including a concave lens film, and liquid crystal polymer covering the concave lens film, a long or short axis of the liquid crystal polymer being parallel to a ridge direction of the concave lens film, and a polarization direction of emitting light of the display unit is parallel to the ridge direction of the concave lens film of the birefringent grating.
Abstract:
The present disclosure provides an array substrate for implementing 2D/3D display switch. The array substrate includes M*N pixel units arranged in an array form, and M and N are positive integers. Each pixel unit includes at least a first pixel subunit A and a second pixel subunit B, the M*N pixel units include at least 2M*N pixel subunits. During the 2D display, the first pixel subunit A and the second pixel subunit B of the pixel unit in an mth row display identical image information, m is a positive integer less than or equal to M. During the 3D display, the first pixel subunit A of the pixel unit in the mth row and the second pixel subunit B of the pixel unit in an (m−1)th row display identical image information, and m is an integer greater than 1 and less than or equal to M.