Abstract:
The liquid crystal grating of the present disclosure may include a plurality of grating element groups for forming dark fringes and transparent fringes. The dark fringe of each grating element group may be arranged adjacent to a transparent fringe of a neighboring grating element group. Each grating element group may include a plurality of first grating elements and at least one second grating element arranged parallel to each other. At least one of the first grating elements is transparent so as to form the transparent fringe of the grating element group, and different first grating elements are enabled to be transparent so as to change positions of the transparent fringes. The second grating element is opaque, the first grating elements and the second grating element that are opaque may be used to form the dark fringes of the grating element group, and the second grating element may have a width greater than that of each of the first grating elements.
Abstract:
The liquid crystal grating substrate includes a base substrate, and several bar-like signal electrodes and several bar-like common electrodes formed at an identical layer on the base substrate. The signal electrodes and the common electrodes are arranged alternately and parallel to each other. The liquid crystal grating substrate further includes a signal electrode input line connected to a first end of the signal electrode and a common electrode input line connected to a second end of the common electrode. Respective first ends of the signal electrode and the common electrode are arranged close to one side of the base substrate, respective second ends of the signal electrode and the common electrode are arranged close to the other side of the base substrate opposite to the side, and the signal electrode input line and the common electrode input line are arranged at a layer identical to the signal electrode.
Abstract:
Embodiments of the present invention provide an array substrate, an optical grating, a display panel and a display device, so as to enable displaying different images in different directions in accordance with the arrangement of subpixels on the array substrate. Moreover, since in one direction only an image corresponding to said direction can be viewed, it would not be influenced by images displayed in other directions. The array substrate comprises a plurality of pixel groups, each pixel group comprises a first category of subpixel group for displaying a preset gray scale and a second category of subpixel group for displaying images of multiple viewpoints; wherein the second category of subpixel group may comprise a first subpixel group, a second subpixel group, a third subpixel group and a fourth subpixel group for displaying a first viewpoint image, a second viewpoint image, a third viewpoint image, and a fourth viewpoint image, respectively; the first subpixel group and the third subpixel group are adjacent to the first category of subpixel group in the vertical direction; the second subpixel group and the fourth subpixel group are adjacent to the first category of subpixel group in the horizontal direction.
Abstract:
The present invention provides a Fresnel liquid crystal lens and a display device. The Fresnel liquid crystal lens comprises an upper substrate and a lower substrate which are aligned and assembled, and a liquid crystal layer provided between the upper substrate and the lower substrate. A layer of first electrodes is provided on a surface of the upper substrate close to the liquid crystal layer and two layers of second electrodes are provided on a surface of the lower substrate close to the liquid crystal layer. An electric field formed between the first electrode and the second electrodes enables the Fresnel liquid crystal lens to simulate the phase delay curve of an ideal Fresnel lens.
Abstract:
The embodiments of the present invention provide a backlight assembly and a display device. The direction of light for display can be adjusted without increasing the thickness of the display device. The backlight assembly comprises: an adjustable liquid crystal lens; a first polarizer located on a light input side of the adjustable liquid crystal lens; a determining unit configured for determining an output direction for light from the backlight assembly; and a controlling unit configured for controlling a tilt angle of the liquid crystal in the adjustable liquid crystal lens based on the output direction determined by the determining unit, thereby ensuring light from the backlight assembly propagating in the determined output direction.
Abstract:
The present disclosure provides a flat panel detection substrate, a fabricating method thereof and a flat panel detector. The flat panel detection substrate according to the present disclosure includes a base substrate; a bias electrode and a sense electrode on the base substrate; and a semiconductor layer over the bias electrode and the sense electrode, the semiconductor layer having a thickness greater than 100 nm.
Abstract:
The present disclosure provides an image processing system, an image processing method, a position determining method and a display system. The image processing system includes a processing module configured to process at least a portion of original views in an original image to be displayed currently, so as to obtain a target image including the processed views, each processed view including an identifier; and a display module configured to display the target image, so as to enable a viewer to determine, in accordance with a combination of the identifiers in the target image, a position for viewing a 3D image. According to the present disclosure, it is able to guide the viewer to view the glassless 3D image at an extremely low cost.
Abstract:
The present invention relates to a display device and a display method. The display device comprises a display panel and a video stream provider, wherein the display panel comprises a display screen and a separation module; the video stream provider provides one or two video streams, the one or two video streams are coded before entering the display screen to form a video signal source, and the video signal source is input to the display screen in a single-channel form; and when the video stream provider provides two video streams, the separation module separates a picture displayed in the display screen into two pictures respectively specific to the two video streams to realize double-view display. In the present invention, the two video streams are provided by the same video stream provider and may be previously coded, so that the complexity of transmission of the video signal source is greatly reduced.
Abstract:
The liquid crystal grating substrate includes a base substrate, and several bar-like signal electrodes and several bar-like common electrodes formed at an identical layer on the base substrate. The signal electrodes and the common electrodes are arranged alternately and parallel to each other. The liquid crystal grating substrate further includes a signal electrode input line connected to a first end of the signal electrode and a common electrode input line connected to a second end of the common electrode. Respective first ends of the signal electrode and the common electrode are arranged close to one side of the base substrate, respective second ends of the signal electrode and the common electrode are arranged close to the other side of the base substrate opposite to the side, and the signal electrode input line and the common electrode input line are arranged at a layer identical to the signal electrode.
Abstract:
An array substrate, a method of manufacturing the array substrate, and a display device are provided. The array substrate includes: a transparent rigid base; light-emitting chips on the transparent rigid base, each light-emitting chip including a chip body and a pin coupled to the chip body, a light-exiting surface of the chip body facing towards the transparent rigid base, and the pin being on a side of the chip body facing away from the transparent rigid base; a driving wire layer on a side of the pin facing away from the transparent rigid base; and a driving chip structure on a side of the driving wire layer facing away from the transparent rigid base. The driving chip structure is coupled to pins of the plurality of light-emitting chips through the driving wire layer, and is used for provide driving signals for the light-emitting chips.