Abstract: A transflective liquid crystal display device includes a first and a second substrates, a liquid crystal layer, and a plurality of reflective electrodes and transparent electrodes. The liquid crystal layer is interposed between the first and the second substrates and functions in an OCB mode. The reflective electrode and the transparent electrode in one picture element are spaced apart from each other to produce a transverse electric field when a voltage is applied across the liquid crystal layer.

Abstract: An optically compensated bend (OCB) liquid crystal display (LCD) panel is provided. The OCB LCD panel includes an active device array substrate, an opposite substrate, an OCB liquid crystal layer and a first patterned dielectric layer. The opposite substrate is disposed opposite to the active device array substrate, while the OCB liquid crystal layer is disposed between the active device array substrate and the opposite substrate. Besides, the first patterned dielectric layer is disposed on the active device array substrate. It is noted that the first patterned insulator has at least a first concave and at least a first transition surface corresponding thereto, such that an arrangement of the liquid crystal molecules of the OCB liquid crystal layer above the first transition surface is a hybrid state. In the above-mentioned OCB LCD panel, the OCB liquid crystal layer can be transited from a splay state to a bend state rapidly.

Abstract: A liquid crystal display (LCD) panel including a first substrate, a second substrate and a liquid crystal layer is provided. The first substrate includes a signal line, an insulating layer and a pixel electrode. The insulating layer is disposed between the signal line and the pixel electrode. The pixel electrode partly overlaps the signal line. The second substrate is parallel to the first substrate. The liquid crystal layer is disposed between the first substrate and the second substrate. When a cross-voltage is applied to the signal line and the pixel electrode, a fringe vertical field having different directions is formed on the peripheral of the partly overlapped area between the signal line and the pixel electrode, such that the liquid crystal layer produces at least one transition nucleus area according to the fringe vertical field.

Abstract: Two phase retardation compensation films with upper and lower slow axes being orthogonal to each other are used to clip a liquid crystal (LC) cell in a transflective liquid crystal display. In an orthogonal polarizer system, the axial difference between the slow axes of the retardation films and the LC molecules director in the LC cell is used to obtain the most suitable phase difference. The ON and OFF of the LC voltage are used to achieve the display function at the darkest state and the brightest state, so as to achieve a transmissive optical mode having low dispersion, wide viewing angle, and ultra-low dark state, without damaging the reflective mode.

Abstract: A method for showing various color temperatures on a digital display simultaneously, which is more convenient and reduces the time users spend tuning color temperatures according to the different color temperatures shown in a video frame.

Abstract: A transflective liquid crystal display device mainly includes a single-cell gap panel, and the bottom surface of the single-cell gap panel has a reflective device. A first liquid crystal (LC) film is installed at the top side of the single-cell gap panel, and a first polarizer is equipped at the top side of the first LC film, a second LC film is equipped at the bottom side of the single-cell gap panel, and a second polarizer is equipped at the bottom side of the second LC film. By way of this optical structure compensation, the present invention which collocates the LC films with the transflective structure of a common single-cell gap panel can complete the transflective optic mode and obtain better reflective contrast ratio, transmissive contrast ratio and higher transmittance for liquid crystal display devices.

Abstract: A transflective liquid crystal display device includes a first and a second substrates, a liquid crystal layer, and a plurality of reflective electrodes and transparent electrodes. The liquid crystal layer is interposed between the first and the second substrates and functions in an OCB mode. The reflective electrode and the transparent electrode in one picture element are spaced apart from each other to produce a transverse electric field when a voltage is applied across the liquid crystal layer.

Abstract: A polarized electroluminescent light-emitting panel is made by treating the photo-alignable functional group of the polymer hole transporting layer with a first direction and second direction photo-alignment treatment to have the molecules of the hole transporting layer aligned in specific directions and then forming a polymer emitting layer on the hole transporting layer, and thus a thin type full-color polarized electroluminescent light-emitting device that will produce polarized superimposition (3D image) is thus obtained.

Abstract: A barrier device of a three-dimensional liquid crystal display (3D LCD) device, which aims to the pixels on the color filter, the barrier panel equips plural parallax barriers. Each of the barriers is grille array, and not transparent. There is a transparent area between two parallax barriers. The parallax barriers in the adjacent arrays are formed diagonally, and the width of the transparent area is greater than that of a sub-pixel in order to reduce the number of the parallax barriers, to enhance the luminance of the 3D LCD, and to preserve the resolution of the 2D-display images.

Abstract: A liquid crystal display includes a liquid crystal polymer film located under a liquid crystal layer. The liquid crystal film has a retardation substantially equal to that of the liquid crystal layer, a twist angle substantially equal to that of the liquid crystal cell, and a twist aspect opposite to that of the liquid crystal layer. As a result, the liquid crystal display has a high contrast ratio.

Abstract: A polarized electroluminescent light-emitting panel is made by treating the photo-alignable functional group of the polymer hole transporting layer with a first direction and second direction photo-alignment treatment to have the molecules of the hole transporting layer aligned in specific directions and then forming a polymer emitting layer on the hole transporting layer, and thus a thin type full-color polarized electroluminescent light-emitting device that will produce polarized superimposition (3D image) is thus obtained.

Abstract: The present invention provides a parallax barrier which can be converted to the transmissive type if necessary, thereby converting 2D viewing to 3D viewing. The parallax barrier of the present invention is constituted by a twist nematic shutter, a polarizer is disposed on the outside surface of a substrate of the parallax barrier, and the substrate can be replaced with a plastic film, whereby the object distance between the view position of the parallax barrier and the display pixel of a display device is a shorter distance so as to provide a 3D image with a shorter view distance.

Abstract: An organic light-emitting diode display device according the present invention includes a metal electrode layer, an organic light-emitting diode layer, a phase transforming film and a polarizer. The phase transforming film has a retardation state of a quarter-wave phase difference that can be converted to have a retardation state with zero phase difference. The arrangement of the phase transforming film and polarizer can eliminate interference from reflecting light off the organic light-emitting diode layer when the organic light-emitting diode layer itself emits light, and can have a function of converting the organic light-emitting diode display device to be a mirror when the organic light-emitting diode layer does not emit light.

Abstract: A display utilizing cholesterin liquid crystal polymer for enhancing contrast includes a transparent substrate on which a bus-bar, an electric hole conductive layer, a lighting layer, an electronic conductive layer and a cathode electrode layer are sequentially overlaid. An insulating packaging layer is disposed on the cathode electrode layer. The electric hole conductive layer is painted with polymer electric hole conductive material and coordinated on the bus-bar. The lighting layer has cholesterin liquid crystal phase and is made on the coordinated electric hole conductive layer. The lighting layer goes through backfire to be arranged into such a structure that the cholesterin liquid crystal lighting molecules can induce and emit manual circular polarized light. A circular polarizing optical coating is attached to one face of the substrate.

Abstract: A display utilizing cholesterin liquid crystal polymer for enhancing contrast includes a transparent substrate on which a bus-bar, an electric hole conductive layer, a lighting layer, an electronic conductive layer and a cathode electrode layer are sequentially overlaid. An insulating packaging layer is disposed on the cathode electrode layer. The electric hole conductive layer is painted with polymer electric hole conductive material and coordinated on the bus-bar. The lighting layer has cholesterin liquid crystal phase and is made on the coordinated electric hole conductive layer. The lighting layer goes through backfire to be arranged into such a structure that the cholesterin liquid crystal lighting molecules can induce and emit manual circular polarized light. A circular polarizing optical coating is attached to one face of the substrate.

Abstract: A method of manufacturing an organic electroluminescent light-emitting device includes the steps of forming a light-permeable anode conducting layer on a transparent substrate and then etching the light-permeable anode conducting layer to form an node pattern by means of photolithography so as to form a plurality of anode electrodes on the transparent substrate, forming crosslink insulating layers on the anode electrodes by means of photolithography, forming cathode spacers on the insulating layers respectively by means of photolithography, using a polymeric hole transporting material and a solvent to form crosslink polymeric hole transporting layers on the anode electrodes between the insulating layers by means of photolithography, depositing small-molecule electron transporting layers on the crosslink polymeric hole transporting layers respectively by means of evaporation, depositing metal cathodes on the small-molecule electron transporting layers respectively by evaporation, and then forming a packaging l

Abstract: A reflective-type liquid crystal display includes a display module having an upper basic layer, a lower basic layer and a liquid crystal layer sandwiched between the upper basic layer and the lower basic layer. A diffuser is piled upon the upper basic layer opposite to the liquid crystal layer and has a haze set from 20% to 60%. A reflective layer is disposed between the lower basic layer and the liquid crystal layer. The reflective layer includes multiple curvature reflective surfaces extending from a top surface of the reflective layer. Each curvature reflective surface reflects and guides the lights from different directions to a normal direction of the reflective-type liquid crystal display.