Abstract: There is disclosed a Fresnel liquid crystal lens panel for a naked eye three-dimensional display, a manufacturing method thereof, and a 3D display using the same. The Fresnel liquid crystal lens panel comprises: a Fresnel liquid crystal lens panel for a naked eye three-dimensional display, comprising: a first substrate comprising a first transparent substrate and a first electrode; a second substrate comprising a second transparent substrate and a plurality of second electrodes; a liquid crystal layer divided into a plurality of lens regions to form a Fresnel liquid crystal lens; and a plurality of insulating barrier blocks being located at an inner side of the second substrate and arranged between two adjacent side lobes of the Fresnel liquid crystal lens. Since the adjacent side lobes are partitioned by means of the insulating barrier block at the boundary therebetween, the crosstalk within the lens region is reduced.

Abstract: A liquid crystal display device provided with a liquid crystal display panel having a pair of transparent substrates disposed to face with each other via a liquid crystal layer, and a backlight unit disposed on a back surface of the liquid crystal display panel for radiating a backlight ray is configured to have a plate member opposite a side wall surfaces of the liquid crystal display panel and a side wall surfaces of the backlight unit. The plate member is fixed to the side wall surface of the liquid crystal display panel and the side wall surface of the backlight unit.

Abstract: A transparent LCD monitor can be layered with a custom optical element that covers a portion of the display surface to create a hybrid solution that is enabled to show 3D content (including both off-screen “pop” in front of the display and an immersive perception of depth behind the display) without the need for any special eyewear while maintaining a high degree of transparency in the unmodified portions of the display.

Abstract: A liquid crystal display includes first and second substrates facing each other and including pixels in a first direction and in a second direction that crosses the first direction, and pixel electrodes disposed in the pixels, respectively, over a common electrode, each of the pixel electrodes including branch electrodes, which extend in the second direction, where the pixels include first pixels, which display a white color, and second pixels, which display one of a red color, a green color, and a blue color, the pixel electrodes include first pixel electrodes, which are disposed in the first pixels, respectively, and second pixel electrodes, which are disposed in the second pixels, respectively, and a first average distance between every two adjacent first and second pixel electrodes in the first direction is smaller than a second average distance between every two adjacent second pixel electrodes in the first direction.

Abstract: An array substrate includes a thin film transistor (1) and a pixel electrode (2) disposed on the thin film transistor; an insulation layer is disposed between the pixel electrode and the thin film transistor, the pixel electrode (2) is connected to a drain electrode (11) of the thin film transistor via a through hole (3) disposed in the insulation layer, the pixel electrode (2) partially covers an edge of the through hole (3) in an orthographic projection direction. The array substrate not only avoids a short circuit between the pixel electrodes, but also properly increases an area of a pixel electrode and the number of and numbers, so that an aperture ratio and a resolution of a display product can be enhanced.

Abstract: A display unit includes a display region and a border region. The display region is configured to include a dark state. A diffusing member is positioned adjacent to the border region such that the diffusing member is coextensive with the border region. A first electromagnetic ray bundle incident on the display region in the dark state produces a first bidirectional reflection distribution function. A second electromagnetic ray bundle incident on the border region produces a second bidirectional reflection distribution function. The diffusing member is configured such that the first bidirectional reflection distribution function is substantially identical to the second bidirectional reflection distribution function. The diffusing member may include a base layer and a surface hologram recorded onto the base layer. The surface hologram is configured to encode a spatial pattern in at least one of the opacity, density, and surface height of the base layer.

Abstract: A display assembly includes front and rear bezel members each defining a frame around a display opening. The front bezel member is capable of secure attachment to the rear bezel member at an interface that defines at least one gap. A display panel is retained against the rear face of the rear bezel member. At least one additional panel member is retained in the gap between the front and rear bezel members, such as a touch panel or EMI panel. The display panel, EMI panel, and touch panel are each individually removable from the display assembly.

Abstract: An electronic device may include a display having an array of display pixels on a substrate. The display pixels may be organic light-emitting diode display pixels or display pixels in a liquid crystal display. In an organic light-emitting diode display, hybrid thin-film transistor structures may be formed that include semiconducting oxide thin-film transistors, silicon thin-film transistors, and capacitor structures. The capacitor structures may overlap the semiconducting oxide thin-film transistors. Organic light-emitting diode display pixels may have combinations of oxide and silicon transistors. In a liquid crystal display, display driver circuitry may include silicon thin-film transistor circuitry and display pixels may be based on oxide thin-film transistors. A single layer or two different layers of gate metal may be used in forming silicon transistor gates and oxide transistor gates. A silicon transistor may have a gate that overlaps a floating gate structure.

Abstract: A liquid crystal display device includes: first and second substrates facing each other and including a plurality of pixels; a liquid crystal layer between the first and second substrates and including a liquid crystal mixture. The first substrate includes a pixel electrode in each pixel. The pixel electrode includes a stem electrode extending in a first direction and a second direction in a cross shape and dividing the pixel into first to fourth domains; and branch electrodes disposed in the first to fourth domains and extending from the stem electrode in a tilted direction to the first and second directions. The branch electrodes disposed in two adjacent domains extend to have angles different from each other with respect to the first direction and the second direction. The liquid crystal mixture includes liquid crystals, and a dopant which adjusts a pitch of the liquid crystals.

Abstract: A conductive element includes: a first conductive film; a second conductive film connected to the first conductive film; a first insulating film covering the first conductive film and disposed in a layer below the second conductive film, the first insulating film having a contact hole exposing at least an edge face of the first conductive film and thereby connecting the second conductive film to the first conductive film; a second insulating film disposed in a layer above the second insulating film so as to straddle the contact hole; and a third conductive film disposed in a layer above the second conductive film with the second insulating film between the second and third conductive films, the third conductive film having a conductive film opening that contains a location overlapping the edge face of the first conductive film in a plan view.

Abstract: A liquid crystal display device includes a liquid crystal panel; a light source; a light guide member that guides light emitted from the light source to a back surface side of the liquid crystal panel; a diffuser panel that is disposed between the light guide member and the liquid crystal panel, extended over an entire area of the back surface of the liquid crystal panel, and diffuses the light received from the light guide member to illuminate the light to the liquid crystal panel; a first reflector that is provided on a back surface of the diffuser panel close to the light guide member side and on an optical axis of the light received from the light guide member, and reflects the light towards the light guide member side; and a second reflector that reflect the light reflected on the first reflector to the diffuser panel side.

Abstract: A liquid crystal display device includes a pixel substrate, a counter substrate, and a liquid crystal layer. The pixel substrate includes a pixel electrode and a common electrode. The counter substrate has a conductive light shielding layer and faces the pixel substrate. The liquid crystal layer is sealed in between the pixel substrate and the counter substrate. The common electrode and the light shielding layer are electrically coupled to each other via a protection circuit.

Abstract: A light guide assembly, a backlight module and a liquid crystal display (LCD) are provided. The backlight module includes a back plate, light guide plate, an adhesive member and a light source. The light guide plate is disposed on the back plate and includes a first optical surface, a second optical surface and a light-incident surface. The first optical surface is opposite to the second optical surface. The light-incident surface connects the first optical surface and the second optical surface. The first optical surface or the second optical surface of the light guide plate is set with a recess. The adhesive member is disposed in the recess to adhere the light guide plate to the back plate. The light source is disposed on the back plate and emits light toward the light guide plate.

Abstract: The present invention provides a COA type liquid crystal display panel. In each pixel unit of the lower substrate, borders of the color resist layer in respective directions are all located at inner sides of the frame electrode and the common electrode line, then no color resist layer is arranged between the frame electrode and the common electrode line to reduce a vertical distance between the frame electrode and the common electrode line and provide a larger storage capacitor. Accordingly, the display quality of the COA type liquid crystal display panel is promoted.

Abstract: An array substrate and an array substrate fabrication method are provided. The array substrate comprises a base substrate, a first conductive layer, a first passivation layer including a plurality of first through-holes. a light-shielding layer including a plurality of first metal wires arranged in parallel, a second passivation layer including a plurality of second through-holes, and a first metal layer including a plurality of second metal wires arranged in parallel and one-to-one corresponding to the plurality of first metal wires. The first metal wire is electrically connected to the first conductive layer through at least one first through-hole, and the second metal wire is electrically connected to the corresponding first metal wire through at least one second through-hole. The array substrate includes a display region and a non-display region, and the first through-holes and the second through-holes are formed at the non-display region of the array substrate.

Abstract: A liquid-crystal display includes a first substrate including several sub-pixels. A micro-structure layer is formed on the first substrate, and the micro-structure layer corresponding to one of the sub-pixels includes a first main trunk portion, a second main trunk portion crossed the first main trunk portion, and several striped branch portions. The striped branch portions are connected with the first and second main trunk portions, wherein an angle is formed between the striped branch portions and the first main trunk portion, and the striped branch portions are alternately arranged with a pitch. A first electrode layer is conformally formed on the micro-structure layer. Specifically, the pitch in one of the sub-pixels is different from the pitch in another one of the sub-pixels, or the angle in one of the sub-pixels is different from the angle in another one of the sub-pixels.

Abstract: An object of the present invention is to protect exposed inspection pads with a conductive tape when the application of resin is ceased and to enhance the reliability of the inspection pads. A liquid crystal display device is provided with a transparent electrode formed on a superficial side of a CF board, a grounded electrode, an inspection pad and a switching device between the inspection pad and a signal line or a scanning line respectively formed in a terminal area a TFT board and a conductive tape that electrically connects the transparent electrode of the CF board, the grounded electrode and the inspection pad respectively of the TFT board.

Abstract: A pixel structure includes a plurality of pixel units arranged in an array. Each of the pixel units includes a first electrode, a second electrode and a thin film transistor, the first electrode having a plate-like structure, and the second electrode having a plurality of strip-shaped electrodes and connecting electrodes to connect the strip-shaped electrodes together. A slit is formed between each two adjacent strip-shaped electrodes, and an end of each slit facing towards the thin film transistor is angled. In any two adjacent pixel units in each column of pixel units, a structure of the second electrode in one pixel unit is in a mirror symmetrical relation with that in the other pixel unit relative to a row direction, and an aperture ratio of a pixel unit in which the slit of the second electrode is angled towards the thin film transistor is larger than an aperture ratio of the other pixel unit.

Abstract: A liquid crystal display (LCD) panel includes a first substrate, electrode patterns, a second substrate, and a liquid crystal (LC) layer. The electrode patterns are located on the first substrate, and a lateral electric field is generated via the electrode patterns according to a driving voltage. The second substrate is located opposite to the first substrate. The LC layer is located between the first and second substrates and includes a voltage driven LC layer and an induced LC layer. The voltage driven LC layer is located on the electrode patterns and is driven by the driving voltage to be optically anisotropic or optically isotropic. The induced LC layer is located between the voltage driven LC layer and the second substrate and induced to be optically anisotropic when the voltage driven LC layer is driven to be optically anisotropic. A thickness of the LC layer is larger than 4 ?m.

Abstract: An object of the present invention is to provide a liquid crystal display element using a liquid crystal composition having negative dielectric anisotropy, which is capable of realizing excellent display properties by being used in an FFS mode liquid crystal display element without deteriorating various properties, as a liquid crystal display element, such as dielectric anisotropy, viscosity, a nematic phase upper limit temperature, nematic phase stability at low temperature, and ?1, and burn-in characteristics of the display element. Provided is an FFS mode liquid crystal display element using an n-type liquid crystal composition so as to achieve the above object.