Abstract: A touch device and a manufacturing method thereof are provided. The touch device includes a base structure and a touch structure. The touch structure includes a touch electrode pattern and a metal trace. The touch electrode pattern is on the base structure. The metal trace is on an edge of the touch electrode pattern. A thickness of the metal trace is 1 ?m-100 ?m. A roughness of the metal trace is 0.1 ?m-90 ?m.

Abstract: A touch structure includes a conductive glass unit and a conductive film unit disposed on one side of the conductive glass unit. The conductive glass unit includes a glass substrate and a first patterned electrode layer. The glass substrate has a first surface and a second surface opposite to the first surface. The first surface has a first roughness, the second surface has a second roughness, and the first roughness is larger than the second roughness. The first patterned electrode layer is disposed on the second surface. The conductive film unit includes a transparent film and a second patterned electrode layer disposed on the transparent film.

Abstract: A touch display apparatus includes a display panel, a first sensing electrode layer and a sensing electrode device. The display panel includes an upper substrate, a lower substrate, and a display medium layer positioned between the upper and lower substrates. The first sensing electrode layer is at one side of the upper substrate opposite to the display medium layer. The sensing electrode device, positioned above the first sensing electrode layer, includes a substrate and a second sensing electrode layer. The second sensing electrode layer is at one side of the substrate. A method for manufacturing the touch display apparatus comprises step of forming the first sensing electrode layer corresponding to one side of the upper substrate. The first and second sensing electrode layers are separately manufactured, and are adhered each other in the subsequent process.

Abstract: A structure of color elements for a color filter. At least a first, second, and third color element are disposed in a delta-type arrangement. An overlapping portion is formed between two adjacent color elements to serve as a light-blocking area. At least one color element is octagonal, having four straight sides and four beveled sides.

Abstract: A color filter includes a substrate, a black matrix located on the substrate, a color layer formed on the substrate, and an over coat layer formed on the substrate to cover the black matrix and the color layer. A plurality of photo spacers are located corresponding to the black matrix, and engage with the over coat layer tightly. Therefore, an IPS LCD using the above-mentioned color filter has a steady configuration, and a cell gap of the LCD is consistent.

Abstract: A color filter includes a plurality of pixels, each of which includes a red, a green, and a blue sub-pixel alternately arranged in a first direction, edges of the red, green, and blue sub-pixels having bent portions. The sub-pixels of a same color are continuously arranged in a second direction being substantially perpendicular to the first direction. Displaying color images of a liquid crystal display using the color filter may be better than that of the liquid crystal display using the typical color filters. The yield ratio in mass production of the liquid crystal display using the color filter is lower than that of the liquid crystal display using the typical color filters. In addition, a liquid crystal display using the color filter is disclosed.

Abstract: A color filter (100) includes pixels (110), each pixel including three sub-pixels (111), and each sub-pixel including a reflection section (R) and a transmission section (T). In each pixel, the transmission sections and the reflection sections are alternately arranged along each row of the sections and along each column of the sections. The alternating arrangement of the transmission sections and the reflection sections of the pixels can provide a uniform pattern of hue balance over the whole display area. Furthermore, in various embodiments described, different optical thicknesses of the transmission sections and the reflection sections (or color layers of the reflection sections) can provide uniform hue over the whole display area.

Abstract: A transflective liquid crystal display device has the consistent chromaticity in transmissive and reflective modes. An insulating layer is formed on a first substrate in the reflective region. A reflective layer is formed on the insulating layer. A color filter is formed on the first substrate and the reflective layer, wherein the color filter thickness in the reflective region is thinner than that in the transmissive region. A pixel electrode is formed on the color filter. A second substrate opposite the first substrate is provided. A common electrode is formed on an inner side of the second substrate. A liquid crystal layer is interposed between the first substrate and the second substrate.

Abstract: A color filter (30) includes a black matrix (33), and the black matrix has a first antireflection layer (331) and a second antireflection layer (332) on the first antireflection layer. Each antireflection layer includes a first antireflection film (3311, 3321) having a first refraction index, and a second antireflection film (3312, 3322) having a second refraction index which is different to the first refraction index. Because of so-called destructive interference of outside source light beams reflected from various interfaces defined by the first and second antireflection films, net reflection of the light beams by the black matrix back to an outside of the color filter is minimal. For similar reasons, net reflection of internal source light beams by the black matrix back to an inside of the color filter is minimal. As a result, visibility of a liquid crystal display device (300) employing the color filter is improved.

Abstract: A method for manufacturing a color filter (30) includes: preparing a transparent substrate (34); forming a black matrix (33) on the transparent substrate, the black matrix including an antireflection layer (332) formed on the transparent substrate and a light-shielding layer (333) formed on the antireflection layer, the antireflection layer including a first antireflection film (3321) having a first index of refraction, and a second antireflection film (3322) having a different second index of refraction, the black matrix defining a plurality of apertures arranged in an array; and coating a color resin layer (32) on the transparent substrate and the black matrix.

Abstract: A color filter (401) for a transflective liquid crystal display (LCD) includes a transparent substrate (4011), a color filter layer (4012) covering the transparent substrate, a transparent electrode (4013) covering the color filter layer, and a transparent layer (4014). The color filter layer comprises a plurality of color units (4015). Each color unit has a first overlapping portion (4015a), a second overlapping portion (4015b) and a middle portion (4015c) therebetween, and the first overlapping portions of color units are formed on second overlapping portions of contiguous color units to form a plurality of light blocking areas, the middle portion of each color unit has a first portion (r) that corresponds to a reflective mode, and a second portion (t) that corresponds to a transmissive mode. The second portion is thicker than the first portion. A transflective LCD using the color filter is also described.

Abstract: A color filter for a transflective liquid crystal display (LCD) includes a transparent substrate (2011), a color filter layer (2012) covering the transparent substrate, a transparent layer (2013) covering the color filter layer, and a transparent electrode (2014). The color filter layer comprises a plurality of black matrix units (2016) and a plurality of color units (2015). Each color unit has two first portions (r) that correspond to a reflective mode, and a second portion (t) that corresponds to a transmissive mode. The second portion is preferably twice as thick as the first portions. A transflective LCD using the color filter is also described.

Abstract: A method for manufacturing a plate (21) having an electrode (214) with a plurality of gaps (217) is provided. The method includes the steps of: providing a substrate (200) comprising a glass layer (210); coating a plurality of photo-resist protrusions (215) on the substrate; coating a transparent conductive layer (218) on the photo-resist protrusions and the substrate; removing the photo-resist protrusions and corresponding portions of the transparent conductive layer, thereby forming a plurality of gaps in the transparent conductive layer. The method of the preferred embodiment can provide a simplified process at a lower cost, compared with conventional methods requiring etching t.

Abstract: A color filter and a method for manufacturing the same are provided. The color filter includes a polarizer matrix (202), which is patterned in accordance with the pixel arrangement of a liquid crystal display device. The polarizer matrix (202) is made of a thin crystal film material, which may linearly polarize incident light along one direction. By incorporating with a polarizer film (206), the polarizer matrix (202) becomes an effective black matrix. A thinner black matrix may thus be produced, and the manufacturing processes of the color filter are simplified.

Abstract: A color filter includes a plurality of pixels, each of which includes a red, a green, and a blue sub-pixel alternately arranged in a first direction, edges of the red, green, and blue sub-pixels having bent portions. The sub-pixels of a same color are continuously arranged in a second direction being substantially perpendicular to the first direction. Displaying color images of a liquid crystal display using the color filter may be better than that of the liquid crystal display using the typical color filters. The yield ratio in mass production of the liquid crystal display using the color filter is lower than that of the liquid crystal display using the typical color filters. In addition, a liquid crystal display using the color filter is disclosed.

Abstract: A preferred method for manufacturing a color filter includes the steps of: providing a color filter substrate (60) and forming a black matrix (31) on the substrate by using a patterned mask (21); providing another three patterned masks (23, 25, 27) and respectively forming three kinds of interferential layers (33, 35, 37) for separately displaying red, green and blue. The materials of the deposited films of the preferred method as described are metal-oxide materials, which improve the heat resistance and color reproduction of the color filter. Further, such materials decrease the time needed to perform the entire process, because the thickness and quantity of the deposited films can be readily controlled based on the optical simulation data obtained beforehand.

Abstract: A color filter on array mode liquid crystal display (100) includes a first substrate (110) and a second substrate (120) disposed opposite each other and spaced apart a predetermined distance, and a liquid crystal layer (130) interposed between the first substrate and the second substrate. A thin film transistor array (111), a color filter layer (112), and a plurality of pixel electrodes (114) are formed on the first substrate. A common electrode (124) is formed on the second substrate. A first polarizer (142) and a second polarizer (144) are positioned at the first substrate and the second substrate, respectively. The first polarizer is an extraordinary type polarizer. Therefore a good contrast ratio over wide viewing angles is achieved. In addition, the polarizers are made of a modified organic dye material which exists in a liquid-crystalline phase. Therefore the liquid crystal display can be applied in high temperature environments.

Abstract: An LCD device (300) includes a first substrate (30), a second substrate (40) disposed parallel to the first substrate, and a liquid crystal layer (33) having liquid crystal molecules interposed between the substrates. The first substrate includes a transparent plate (31), a color filter layer (38) formed on the transparent plate opposite to the second substrate, and a common electrode (39) formed on the color filter layer. The common electrode has a plurality of protruding portions (391) protruding toward the second substrate. The second substrate has pixel electrodes (35) opposite to the first substrate. The pixel electrodes define slits (351) therebetween. This configuration ensures to generate a symmetric electric field (E) distributing in several directions between the common and pixel electrodes so as to form several domains.

Abstract: An IPS-LCD device (3) includes opposite first and second substrates (30, 40) in a spatial parallel relation, a liquid crystal layer (36) having liquid crystal molecules interposed between the substrates, and a peripheral sealant (37) disposed between the substrates for sealing a space therebetween. The first substrate has an over coat layer (34) covered on a surface facing the second substrate. The over coat layer defines a peripheral sealing region (341) having a plurality of holes (342). The sealant interlocks with the sealing region in the holes, which ensures that the substrates are strongly combined together. This makes the IPS-LCD device sturdy and durable.

Abstract: A color filter (100) includes pixels (110), each pixel including three sub-pixels (111), and each sub-pixel including a reflection section (R) and a transmission section (T). In each pixel, the transmission sections and the reflection sections are alternately arranged along each row of the sections and along each column of the sections. The alternating arrangement of the transmission sections and the reflection sections of the pixels can provide a uniform pattern of hue balance over the whole display area. Furthermore, in various embodiments described, different optical thicknesses of the transmission sections and the reflection sections (or color layers of the reflection sections) can provide uniform hue over the whole display area.