Abstract:
An X-ray image sensor fabricated using eight-mask steps. A thin film transistor (TFT) having a gate electrode, a first insulation layer, pure and doped amorphous silicon layers, and source and drain electrodes is on a substrate. An island-shaped first insulation layer, semiconductor layer, and ground line are also formed. A second insulation layer having a first drain contact hole and a ground line contact hole covers the TFT, the substrate, and the ground line. An auxiliary drain electrode on the second insulation layer contacts the drain electrode through the first drain contact hole. A capacitor electrode on the second insulation layer contacts the ground line through the ground line contact hole. A third insulation layer having a second drain contact hole that exposes the auxiliary drain is on the second insulation layer, the auxiliary drain electrode, and the capacitor electrode. A pixel electrode on the third insulation layer contacts the auxiliary drain electrode through the second drain contact hole.
Abstract:
An etchant includes hydrogen peroxide (H2O2), and a mixed solution including at least one of an organic acid, an inorganic acid, and a neutral salt.
Abstract translation:蚀刻剂包括过氧化氢(H 2 O 2)和包含有机酸,无机酸和中性盐中的至少一种的混合溶液。
Abstract:
A method for manufacturing a liquid crystal display panel includes preparing first and second substrates having an active region, forming a sealant along a periphery of the active region on at least one of the first and second substrates, dispersing a liquid crystal material on the at least one substrate, the liquid crystal material having a photo-reactant material, attaching the first and second substrates, and irradiating ultraviolet light on an entire surface of the at least one substrate.
Abstract:
A method for examining quality of a flat panel display device is disclosed, in which good/fail of the flat panel display device is automatically examined to improve efficiency of the operation and obtain exact examined result. The method for examining good/fail of a flat panel display device includes the steps of inputting defect data for each process step, automatically examining good/fail of the panel depending on the input defect data, and measuring good/fail and yield of a glass based on the examined result of the panel.
Abstract:
A method of driving a liquid crystal display wherein an application sequence of a data is changed, to thereby improve a picture quality. In the method, the data is supplied to a desired number of data lines on a basis of first sequence in a first horizontal period. The data is supplied to the desired number of data lines on a basis of second sequence in a second horizontal period following the first horizontal period.
Abstract:
In a liquid crystal display device substrate, an insulating layer covers a thin film transistor. Another insulating layer covers a black matrix, which is formed on the insulating layer and covers the thin film transistor, a gate line, and a data line except a portion of a drain electrode. A first transparent conductive layer covers the top insulating layer and contacts the exposed portions of the drain electrode, a gate pad and a data pad. A buffer layer is formed on the first conductive layer and a color filter is formed on the buffer layer. The buffer layer is exposed by the color filter to reveal portions of the first conductive layer. A second transparent conductive layer covers the color filter and the revealed portions of the first conductive layer. The conductive layers are patterned to form pixel electrodes and double-layered gate and data pad terminals.
Abstract:
The method and apparatus for measuring response time of liquid crystal includes controlling temperature of a liquid crystal display panel, generating a liquid crystal driving signal having a variable voltage level that is changed according to a response property of the liquid crystal display panel and a target voltage level, and supplying the liquid crystal driving signal to the liquid crystal display panel, detecting the response property corresponding to the liquid crystal driving signal, and adjusting the variable voltage level until the response property reaches a desired level and setting a modulated data substantially equal to the variable voltage level when the response property reaches the desired level, the modulated data based on temperatures being determined by changing the temperature of the liquid crystal display panel. Also, method and apparatus for driving a LCD device using the above-described method.
Abstract:
A display device fabricating apparatus includes a radio frequency generator and a vacuum chamber. A first electrode and a second electrode that receive power from the radio frequency generator form a plasma using a gas inside the vacuum chamber. A power supply line supplies power to the first electrode from the radio frequency generator. A refrigerating part uses a refrigerant other than air in order to remove the heat generated from the power supply line. The refrigerant is circulated through a system that cools the refrigerant below the ambient external temperature before the refrigerant is used to cool the power supply line and re-cool or re-liquefy the refrigerant that has been heated by the power supply line.
Abstract:
An apparatus for driving a liquid crystal display includes a picture quality improving unit that extracts a brightness component from first data, analyzes the brightness using the extracted brightness component, and generates second data having a contrast in accordance with the analyzed brightness. The contrast of the second data is extended from that of the first data. A timing controller rearranges the second data to supply the second data to a data driver. A backlight supplies the light to a liquid crystal panel in accordance with a driving current. An inverter supplies the driving current to the backlight.
Abstract:
A transflective liquid crystal display device includes a first substrate including transmissive and reflective pixels. Gate and data lines on the first substrate cross each other to define a pixel region, with a thin film transistor at each crossing. The transmissive and reflective pixels correspond to respective pixel regions. A first passivation layer covers the thin film transistor and has a transmissive hole in the transmissive pixel. A first reflector is disposed on the first passivation layer in the reflective pixel. A second passivation layer is disposed on the first reflector and in the transmissive hole. A pixel electrode on the second passivation layer is connected to the thin film transistor. A second substrate opposing the first substrate has a color filter layer on an inner surface thereof. The color filter layer contains R, G and B sub color filters, which each correspond to a pixel region.