Abstract:
A structure of an illumination apparatus is described. The structure has a light guide rod arranged at one lateral side of a light guide plate, and plural light sources located below the light guide rod. The light guide rod has at least one tilt plane formed thereon in order to guide the light emitted from the light sources to the light guide plate such that uniform planar light could be generated therefrom. A plurality of notches is formed in the tilt plane, and a plurality of depressed or protruding dispersion dots is formed on an out-going plane of the light guide rod. The structure further includes an anti-reflection layer positioned between the light guide rod and the light guide plate.
Abstract:
This invention relates to a transflective LCD device using different common voltages in the transmissive and reflective regions to present the same gray scale performance on the transmissive and reflective regions. The liquid crystal display device includes a first substrate including a plurality of transmissive regions and a plurality of reflective regions; a transmissive electrode formed on said transmission electrode region; a reflective electrode formed on said reflective regions and connected electrically with said transmissive electrode; a second substrate including a plurality of first common electrodes and a plurality of second common electrodes, wherein said first common electrodes are formed over said transmissive regions, said second common electrodes are formed over said reflective regions, and said first common electrodes are not connected electrically with said second common electrodes; and a liquid crystal layer interposed between said first substrate and said second substrate.
Abstract:
A method for fabricating a light emitting device to be used for illuminating many kinds of luminous materials comprises the following steps. Firstly, an anode is provided. Then, an insulating layer is partially formed on a surface of the anode to define a plurality of light-emitting regions on the surface of the anode, wherein the plurality of light-emitting regions are uncovered by the insulating layer. Then, the many kinds of luminous materials are formed on corresponding light-emitting regions and the insulating layer so as to form a luminous material layer. Afterwards, a cathode is formed on the luminous material layer. The light emitting device produced by such method is also provided.
Abstract:
A driving circuit for a double display panel is disclosed. The driving circuit drives a first display panel and a second display panel, and includes an ASIC and two pairs of driving ports. The ASIC outputs a driving signal pair including two signals which are opposite in phase to each other. A first pair of driving ports electrically connected to the first display panel and the ASIC, receiving the driving signal pair to determine whether to activate the first display panel or not. A second pair of driving ports electrically connected to the second display panel and the ASIC, receiving the driving signal pair to determine whether to activate the second display panel or not. The driving signal pair determining the activation of the first and second display panel is the same for both panels, and only one of the display panels can be activated at a time.
Abstract:
A structure of a semiconductor device facilitating electrostatic discharge protection at least includes a source terminal, a drain terminal, and a gate terminal, wherein a portion of the source terminal and a portion of the drain terminal are overlapped above the gate terminal to increase the coupling capacitance so that the electrostatic discharge protection device can be turned on quickly. Accordingly the response of the electrostatic discharge protection device to an electrostatic discharge can be effectively promoted.
Abstract:
A driving method of an LCD panel having a driving IC and a plurality of display groups comprising a plurality of display cells and are respectively coupled to a data electrode and a gate electrode. The driving IC simultaneously drives one display cell in each display group on the same row. First, video signals are provided by the driving IC to one display cell in each display group on the same row. Here, the display cells of adjacent display groups receive opposite polarity video signals. Finally, the scan signals are provided to the gate electrodes.
Abstract:
The upper polarizer of a flat display device is located on the upper transparent electrode of the touch panel that is combined with the flat display device. Therefore, the flat display device and the touch panel can share a glass or plastic substrate and a flexible printed circuit board substrate on the second electrode layer.
Abstract:
A light module and a flat panel display including the light module. The light module includes a printed circuit board having a first surface and a second surface; a first light source disposed on the first surface of the printed circuit board; a second light source disposed on the second surface of the printed circuit board; and a light guiding plate disposed adjacent to the printed circuit board, for guiding light emitted from the first and/or the second light sources to a first surface of the light guiding plate.
Abstract:
A method of forming color elements for a color filter and an apparatus for the same. A color arrangement of color elements for a color filter is provided on a die plate. Then, a plurality of bumps is formed on the die plate corresponding to the color arrangement of color elements. Next, a plurality of pigments is provided to the bumps respectively to form a plurality of color bumps. Finally, the color bumps of the die plate are downwardly stamped on a transparent insulating substrate to form a plurality of color elements corresponding to the color arrangement.
Abstract:
A method of forming a liquid crystal display device with a pixel TFT, a bottom electrode of pixel capacitor CL, and a storage capacitor Cs in a pixel region, and an n-type TFT and a p-type TFT in a driving circuit region is disclosed. Firstly, a transparent conductive oxide layer, a metal layer and an n-type heavy doped silicon layer are sequentially formed on a glass substrate. Thereafter, a patterning step is performed to define some predefined regions for above devices. After an active layer and a gate oxide layer are formed in order on all patterned surfaces, another patterning step is done to form a first, a second, and a third preserved region, respectively, for a LDD region of the n type TFT, source/drain regions for the p type TFT and a LDD region for pixel TFT and Cs. Afterward, gate electrodes are formed for aforementioned TFT and an upper electrode for Cs. Subsequently, a blanket nLDD implant is performed. Thereafter, a p type source/drain implant is carried out using a photoresist pattern as a mask. After removing the photoresist pattern, a passivation layer is formed on all areas. Next an annealing is performed to active the implant impurities. Another patterning process is then performed to form contact by patterning the passivation layer and form the bottom electrode of CL by further patterning the n-type heavy doped silicon layer, and the metal layer.