Abstract: A double-sided LCD device includes a double-sided backlight unit, front and rear LCD panels, and first and second circuit boards connected to the front and rear LCD panels, respectively, by TCPs. Each TCP has first and second slits for bending the TCP. The TCP connecting the first circuit board to the front LCD panel is bent at the second slit, whereas the TCP connecting the second circuit board to the rear LCD panel is bent at the first slit, to achieve overlapping arrangement of the first and second circuit boards as viewed parallel to the LCD panels.

Abstract: A producing method of a liquid crystal display panel includes steps (a) to (e). The Step (a) is fixing a counter substrate on a fixing table, wherein the counter substrate includes a plurality of counter portions each of which includes a plurality of counter electrodes. The Step (b) is dividing the counter substrate into the plurality of counter portions. The Step (c) is putting a liquid crystal material on the each of plurality of counter portions. The Step (d) is attaching a device substrate and the counter substrate together, wherein the device substrate includes a plurality of device portions each of which includes a plurality of switching devices. The Step (e) is dividing the device substrate into the plurality of device portions. The each of plurality of device portions is attached to a corresponding one of the each of plurality of counter portions.

Abstract: A dedicated control signal electrode is provided between pixel electrodes, and a strong electric field is generated between the control signal electrode and the common electrode to quickly and securely make an initial transition from liquid crystal molecules in a splay alignment state to the same in a bend alignment state. In addition, generating a strong electric field between the control signal electrode and the common electrode even during operation for displaying an image makes liquid crystal molecules stably stay in a bend alignment state. In this case the scan signal electrode, the video signal electrode and the common electrode, which are required for displaying an image, are not used to make a transition from liquid crystal molecules in a splay alignment state to the same in a bend alignment state and make the same stay in a bend alignment state.

Abstract: A method of fabricating a semiconductor device including an interconnection is provided. The method is composed of covering a substrate with a metal film stack including a lower refractory metal film over the substrate, a lower protective layer of a first compound including metal disposed on an upper surface of the lower refractory metal film, a core metal film of the metal on an upper surface of the lower protective layer, an upper protective layer of a second compound including the metal disposed on an upper surface of the core metal film, and an upper refractory metal film disposed on an upper surface of the upper protective layer, patterning the metal film stack; and forming a side protective layer of a third compound including the metal on a side of the patterned core metal film.

Abstract: A method of forming a resist pattern effectively controls the manner/style and the amount of modification of a resist pattern in its reflowing process, realizing a desired resist pattern with a desired accuracy even if the deformation amount of the resist pattern is increased in the reflowing process. A second layer is formed on a first layer and then, a first resist pattern is formed on the second layer. The second layer is selectively etched using the first resist pattern as a mask. Thereafter, wettability of at least part of an exposed area of the second or first layer from the first resist pattern is adjusted, thereby forming a wettability-adjusted part. The first resist pattern is modified in such a way as to extend to the wettability-adjusted area by reflowing the first resist pattern using an organic solvent, thereby forming a second resist pattern for selectively etching the first layer or the second layer.

Abstract: An LCD (Liquid Crystal Display) is provided in which shavings of an alignment layer are accumulated only in regions surrounding a TFT (Thin Film Transistor) in a TFT substrate in a concentrated manner. A barrier made of an insulating material is formed in a manner to cover portions surrounding the TFT including step portions of the TFT on a back channel in the TFT substrate and to be disposed at a place on a downstream side in a rubbing direction.

Abstract: A liquid crystal display is provided which is capable of improving a quality of a displayed image made up of a moving image and a static image in a mixed manner. By arranging backlights and by dividing one frame of a video input signal into four frame blocks and by getting a moving image detecting circuit to judge whether an image for each of the frame blocks is a moving image or a static image and having a lighting timing duty control section get the backlight corresponding to an image for the frame block having been judged to be a moving image to flash and also get the backlight corresponding to an image for the frame block having been judged to be a static image to be turned ON all the time, occurrence in an image retention phenomenon or a blur of an edge is reduced when a moving image is to be displayed and occurrence of a flicker is eliminated when a static image is to be displayed, which enables improvements in a quality of a displayed image.

Abstract: Within a reflective display section R, a part of a light that reaches a reflective electrode through a color filter exits to the outside through slits and a part of a light that reaches the reflective electrode through the slits exits to the outside through the color filter. In addition, a light reaching the reflective electrode through the color filter and exiting to the outside through the color filter, and a light having no opportunity to pass through the slits also can be observed. Therefore, a mean film thickness of color filter through which all lights pass during the time in which they travel the associated distance after they are inputted to the inside until they are outputted to the outside becomes nearly equal to that could be observed in the transmissive section T.

Abstract: A first substrate, a second substrate opposing to the first substrate, and liquid crystal provided in a space between the first substrate and second substrate are provided to an IPS mode liquid crystal display. A plurality of gate lines and a plurality of drain lines, thin film transistors, pixel electrodes, and common electrodes are formed on a transparent substrate in a first substrate. Each of the thin film transistors is provided in a vicinity of the intersection of the gate line and drain line. Each of the pixel electrodes is formed within a pixel region enclosed with an adjacent pair of the gate lines and an adjacent pair of the drain lines. Each of the common electrodes develops an electric field within each of the pixel regions between the pixel electrode and itself. The second substrate includes color layers provided for each of the pixel regions. The color layers are spaced apart from the gate lines and drain lines when seen on a plane.

Abstract: In a liquid-crystal display panel, columnar spacers are formed on a substrate on the transparent electrode side in minimally a part of the pixel parts of a plurality of pixel parts, in which there is little variation in the film thickness of a plurality of films formed over the substrate.

Abstract: A method for manufacturing a thin film semiconductor device is provided which is capable of achieving simplification of manufacturing processes and of improving alignment accuracy without using a plurality of alignment masks. An alignment pattern is formed by using a resist layer having a plurality of regions each having a different film thickness corresponding to each of a plurality of patterns produced using a halftone mask having a halftone exposure region as a photomask and by forming a light transmitting portion to be an aperture pattern and by etching an underlying silicon layer. By having an underlying silicon layer exposed and implanting ions into an entire resist layer, only a main pattern region is doped with the ions.

Abstract: A liquid crystal display cell includes: a first substrate; a second substrate; a liquid crystal layer interposed between the first and second substrates; and a spacer structure on the second substrate. The spacer structure further includes: at least a first type spacer having a first height; and at least a second type spacer having a second height which is smaller than the first height.

Abstract: A thin film transistor circuit device and the production method thereof is demanded for a thin film transistor circuit device, which contains wiring having a structure of an aluminum alloy in a lower layer and a molybdenum alloy in an upper layer, wherein corrosion in air of the molybdenum alloy does not proceed easily. A thin film transistor circuit device which exposes a portion of wiring covered with an insulating film that connects thin film transistors of a main circuit region formed on a center portion of a substrate to a protection circuit region formed on an outer periphery of the substrate, which contains on the exposed surface a terminal which is formed of terminal electrode metal, wherein an uppermost surface of the wiring is a molybdenum alloy comprising niobium.

Abstract: For each of colored resists, a resist coating step of coating a washed substrate with the colored resist, a reduced-pressure drying and temporary baking step of evaporating solvent contained in the colored resist, an exposing step of printing a pattern in the colored resist, a developing the printed pattern and a photo-curing and temporary post-baking step of hardening a surface portion of the resist to a hardness level, in which there is no defect of the printed colored resist pattern occurs in a coating step and a developing step, which are performed later, are repeated. In forming a last colored resist, a normal baking step of simultaneously hardening all of the coated colored resist patterns is performed, instead of the photo-curing and temporary post-baking step.

Abstract: In a liquid crystal display device there are provided a frame, a liquid crystal panel, and a diffuser, the liquid crystal panel and the diffuser being supported by a frame formed of a white resin. The frame is composed of two short-side members and two long-side members. The short-side members are provided with reflectors respectively, and lamp mounting members formed of rubber are fitted with the reflectors to support end portions of lamps. The lamp mounting members are mounted to a back reflector to fix the lamps to the back reflector.

Abstract: A reflector is incorporated in a liquid crystal display panel for directing light to an optical path from a lamp to a liquid crystal panel, and a high voltage line is directly connected to an electrode of the lamp, but a low voltage line is connected through a conductive pattern formed on the reflector to the other electrode of the lamp, wherein the conductive pattern is formed from a layer of conductive filler printed on the reflector through thermosetting so that the conductive pattern is thick enough to withstand thermal stress without enlargement of the liquid crystal display unit.

Abstract: A tape carrier type semiconductor device includes a flexible substrate, on which a driver circuit is mounted and on whose surface wiring is formed. Formed in the flexible substrate are the first slit for releasing external stress and the second slit for folding the tape carrier type semiconductor device. A connector for connecting both sides of the first slit is prepared at the center of the slit, whereby the unnecessary warp of the tape carrier type semiconductor device can be reduced.

Abstract: To provide a method of fabricating a liquid crystal display substrate and a liquid crystal display substrate, in which the extra length portion of a substrate is made as small as possible as well as the precision of cutting of the adhered substrate is enhanced, and pollution of facilities of the following processes due to the occurrence of particles, cullet and the like can be prevented, and which can be cut without being influenced by the seal layer, at least one or more scribe cracks are formed on respective faces of two sheets of the substrates opposed to each other via the seal layer enclosing the liquid crystal layer, and the adhered substrates are cut after said two sheets of the substrates are adhered via said seal layer.

Abstract: In order to improve processing steps of fabricating an active-matrix addressed reflective liquid crystal display, a lower substrate, which is positioned at one side with respect to a liquid crystal layer, is provided with two electrodes in parallel with each other and in parallel with the liquid crystal layer. One of the two electrodes is electrically coupled to a source electrode of a switching element assigned to one pixel, and the other electrode is electrically couple to a constant potential source. Each of the two electrodes has characteristics of light reflectivity, which is able to reduce the intensity of exposing light when an insulating layer provided above the electrodes is patterned.

Abstract: An active-matrix addressing LCD device using lateral electric field realizes a higher transmittance and a higher fabrication yield and improves the aperture ratio without raising the fabrication cost. A first one of the common electrode lines, a first one of the pixel potential layers, and an intervening dielectric layer constitute a first storage capacitor for each of the pixels and at the same time, a second one of the common electrode lines, a second one of the pixel potential layers, and the intervening dielectric layer constitute a second storage capacitor for the same pixel. The first and second pixel potential layers are electrically connected to each other by way of a corresponding transparent pixel electrode. Therefore, the rotation of the liquid crystal molecules caused by applied electric field makes full contribution to the panel transmittance, preventing the obtainable total panel transmittance from lowering. This means that a higher transmittance is obtainable.