Abstract: A touch panel and a fabricating method thereof are provided. The touch panel includes: a substrate; a first conductive layer configured on the substrate and having a first and a second portions; an insulating layer covering the first portion; and a second conductive layer having a third portion configured on the second portion, and a fourth portion configured on the insulating layer and being separate from the third portion. The fabricating method includes the steps of: providing a first conductive layer; forming an insulating layer partially covering the first conductive layer; and forming a second conductive layer having a first pattern coupled to the first conductive layer and a second pattern insulated from the first pattern on the insulating layer.

Abstract: A projected capacitive touch panel and fabrication method thereof is provided. The method includes steps of: (a) providing a substrate; (b) forming a conductive layer on the first plane of the substrate, wherein the conductive layer has a first pattern and a second pattern; and (c) forming a conductive bridge on the conductive layer to electrically connect the first pattern with the second pattern.

Abstract: A fabrication method of a projective-capacitive touch panel is provided. The method includes steps of: providing a substrate; forming a metal trace layer on the substrate with a first exposing/developing process and a etching/stripping process sequentially; forming a first pattern layer on the metal trace layer with a second exposing/developing process, a first filming process and a first stripping process sequentially; forming a insulation layer on the first pattern layer; and forming a second pattern layer on the insulation layer with a third exposing/developing process, a second filming process and a second stripping process sequentially.

Abstract: A touch panel and a fabricating method thereof are provided. The touch panel includes: a substrate; a first conductive layer configured on the substrate and having a first and a second portions; an insulating layer covering the first portion; and a second conductive layer having a third portion configured on the second portion, and a fourth portion configured on the insulating layer and being separate from the third portion. The fabricating method includes the steps of: providing a first conductive layer; forming an insulating layer partially covering the first conductive layer; and forming a second conductive layer having a first pattern coupled to the first conductive layer and a second pattern insulated from the first pattern on the insulating layer.

Abstract: A device for measuring an optical property of a liquid crystal display is provided. The device has a light source providing a light, a first polarizer pervious to the light, a second polarizer pervious to the light, a detector receiving the light, and a calculating module. The first polarizer and the second polarizer are mounted between the light source and the detector, a first transmittance spectrum is obtained while the liquid crystal display is mounted between the first polarizer and the second polarizer, and a second transmittance spectrum is obtained while the liquid crystal display is mounted between the detector and the first and second polarizers.

Abstract: A designing method for a display module is provided. First, set a predetermined chromaticity value. Second, readjust a respective area distribution among a red subpixel, a blue subpixel and a green subpixel in a pixel to produce a simulated chromaticity value close to the predetermined one. Next, compare the predetermined chromaticity value with the simulated one. Then, repeat the step of adjusting the respective area of the red subpixel, the green subpixel and the blue subpixel until a difference between the predetermined chromaticity value and the simulated one is in a predetermined deviation. By means of adjusting the area distribution among the different subpixels, the chromatic aberration of LCD could be improved.

Abstract: A device for measuring an optical property of a liquid crystal display is provided. The device has a light source providing a light, a first polarizer pervious to the light, a second polarizer pervious to the light, a detector receiving the light, and a calculating module. The first polarizer and the second polarizer are mounted between the light source and the detector, a first transmittance spectrum is obtained while the liquid crystal display is mounted between the first polarizer and the second polarizer, and a second transmittance spectrum is obtained while the liquid crystal display is mounted between the detector and the first and second polarizers.

Abstract: A method for providing an improved displaying effect of a liquid crystal panel is provided, wherein the liquid crystal panel comprises two alignment layers disposing therebetween a liquid crystal layer having a spiral pitch and a liquid crystal twist angle. The method comprises steps of (a) spacing the two alignment layers at an interval with a desired twist angle therebetween; (b) measuring a first ratio of the interval to the spiral pitch of the liquid crystal layer, at which the liquid crystal twist angle is less than the desired twist angle between the two alignment layers; and (C) deciding an initial ratio of the interval to the spiral pitch of the liquid crystal layer being larger than the first ratio for providing the improved displaying effect of the liquid crystal.

Abstract: A liquid crystal display module is provided. The LCD module includes a liquid crystal display body, a base having a first frame, a cover having a second frame for covering the base, a plurality of mounting openings mounted on an outer wall of the second frame, a plurality of indentations positioned at a bottom surface of the second frame, a plurality of protrudent elements mounted on an outer wall of the first frame for being engaged with the plurality of mounting openings so as to secure the engagement between the first frame and the second frame, and a plurality of blocking elements mounted at a bottom surface of the first frame for preventing the bottom surface of the second frame from being pressed over the bottom surface of the first frame.

Abstract: A folding mobile phone comprising a main body, a display sheathing and a pivot is provided. The main body comprises a button panel, and the display sheathing pivots on the main body. The display sheathing has two corresponding surfaces. Moreover, the display sheathing comprises a liquid crystal module, a light source and a light-guiding bar. Two light-guiding plates are respectively disposed over the two surfaces of the liquid crystal module. Each of the two corresponding surfaces exposes a portion of the light-guiding plate. Furthermore, the light source is disposed at a side of the liquid crystal module, and the light-guiding bar is disposed between the light source and the liquid crystal module. The light-guiding bar is connected with the pivot to swing between the two light-guiding plates and guides the light from the light source to one of the two light-guiding plates.

Abstract: A power supply device of an LCD module, an LCD module of regulating working voltage and a method of regulating power supply of an LCD module are provided. The LCD module of regulating working voltage includes a power micro-regulating apparatus of an LCD module, an LCD display panel, a column driving circuit and a row driving circuit. A voltage following device is electrically connected to a second end of a plurality of dividing resistors. A regulating voltage is input to the dividing resistors via the second end to regulate a plurality of output working voltages. The cost of the LCD module product is cheaper and the output working voltage is easily regulated. The power supply device can be applied to all LCD module having different specifications. The circuit of the power supply device is simple and can be well easily controlled.

Abstract: A flexible printed circuit with a broadened anisotropic conductive film is provided. The flexible printed circuit includes a substrate layer and a circuit layer, characterized in that a pitch of the anisotropic conductive film is broadened to be ranged from 0.5 mm to 3.0 mm. It has even and low impedance, even breakage of conductive particles, even pressure, and thus has good reliability of the anisotropic conductive film for use in handheld electronic devices.