Abstract:
A liquid crystal display panel includes a first substrate, a second substrate, and a seal pattern. The first substrate has an image display portion thereon, and the seal pattern is along an outer periphery of the image display portion to attach the first substrate with the second substrate. The first substrate includes at least one conductive line disposed at a corner portion of the first substrate, a multi-layer film disposed on the first substrate and the at least one conductive line, and a transparent electrode formed on the multi-layer film and in the bonding holes. The multi-layer film defines a plurality of bonding holes disposed along a region where the seal pattern is disposed. Herein, the transparent electrode is entirely disposed within a boundary defined by an outer side of the seal pattern.
Abstract:
A liquid crystal display device includes a substrate having an image display part; a metal line on the substrate; an insulating film on the metal line; a passivation film on the insulating film; a semiconductor layer for increasing the adhesive bond between the insulating film and the passivation film; and a sealant pattern of sealant having a path formed along the periphery of the image display part, wherein the insulating film and the passivation layer have a plurality of holes along the path of the sealant pattern.
Abstract:
A liquid crystal display panel includes a plurality of gate lines arranged along a first direction on a first substrate, a plurality of data lines arranged along a second direction on the first substrate to cross the gate lines to define a plurality of unit pixels, an insulating layer disposed over the gate and data lines, a common electrode disposed on a second substrate opposite to the first substrate, a plurality of pixel electrodes, each pixel electrode provided in each of the unit pixels partitioned by the gate line and the data line, and a plurality of side electrodes overlapping the data lines, wherein the insulating layer is provided between the side electrode and the data lines.
Abstract:
A bi-directional driving circuit of a flat panel display device and method for driving the same is disclosed in the present invention. The bi-directional driving circuit of a flat panel display device having a plurality of blocks driven by a start pulse Vst, first to fourth clock signals having different phases CLK1, CLK2, CLK3, and CLK4, and first and second power source voltages Vdd and Vss, each block includes a shift register comprising a first control part charging the start pulse Vst or an output signal of a previous block to a first node Q according to either one of the first to fourth clock signals or a second node QB, a second control part controlling the second node QB according to the start pulse Vst, either the output signal of the previous block or an output signal of the next block, and one of the first to fourth clock signals, a third control part charging the start pulse Vst or the output signal of the next block to the first node Q according to either one of the first to fourth clock signals, or controlling the second node QB, and a buffer outputting one of the first to fourth clock signals as a shift pulse according to the first and second nodes Q and QB; and a level shifter shifting a level of the shift pulse output from the shift register in each block, and outputting the shifted level.
Abstract:
An electric field alignment method of a ferroelectric liquid crystal display device includes connecting a plurality of thin film transistors arranged along a first direction to a plurality of data lines in an offset configuration between adjacent data lines, supplying a turn-ON voltage at a level greater than a threshold voltage of the thin film transistors during an electric field alignment of ferroelectric liquid crystal material of the ferroelectric liquid crystal display device at least more than two successive times to a plurality of gate lines arranged along a second direction, and supplying voltages of opposite polarity to the adjacent data lines during the electric field alignment while maintaining a voltage of a ferroelectric liquid crystal cell of the ferroelectric liquid crystal display device during the electric field alignment.
Abstract:
A method of fabricating a liquid crystal display device includes providing a first substrate, forming a conductive layer on a rear surface of a second substrate, forming a black matrix layer on a front surface of the second substrate, baking the black matrix layer and annealing the conductive layer, forming a color filter layer on the front surface of the second substrate, and attaching the first and second substrates.
Abstract:
A pattern forming method includes: forming an etching-subject layer on a substrate; forming a Ti layer on the etching-subject layer; forming a TiOx layer by irradiating light on a portion of the Ti layer using a mask; etching the Ti layer to form a TiOx pattern; etching the etching-subject layer using the TiOx pattern as a mask; and removing the TiOx pattern.
Abstract:
A transmissive-type organic electroluminescent display device includes a substrate including sub-pixel regions thereon, an array element in each sub-pixel area that includes thin film transistors, a partition wall at a border portion between adjacent sub-pixel regions made of a transparent insulating material, a first electrode made of a transparent conductive material in each sub-pixel region between adjacent partition walls, an organic electroluminescent layer on the first electrode in each sub-pixel region between the adjacent partition walls, a second electrode made of a transparent conductive material on the organic electroluminescent layer and a passivation layer covering the second electrode.
Abstract:
A liquid crystal display panel device includes an upper substrate having a plurality of first patterned spacers, and a lower substrate having a plurality of second patterned spacers, wherein the upper and lower substrates are opposed to each other and the first patterned spacers are arternatingly positioned with the second pattern spacers.
Abstract:
An array substrate device includes a gate line formed on a substrate extending along a first direction having a gate electrode, a data line formed on the substrate extending along a second direction having a data pad disposed apart from a first end of the data line, the data and gate lines defining a pixel region, a gate pad formed on the substrate disposed apart from a first end of the gate line, a thin film transistor formed at a crossing region of the gate and data lines and including the gate electrode, a semiconductor layer, a source electrode, and a drain electrode, a black matrix overlapping the thin film transistor, the gate line, and the data line except for a first portion of the drain electrode, a first pixel electrode at the pixel region contacting the first portion of the drain electrode and the substrate, a color filter on the first pixel electrode at the pixel region, and a second pixel electrode on the color filter contacting the first pixel electrode.