Abstract: It is disclosed a liquid crystal display having an electrode pad for compensating for differences in resistance of electrode links. The liquid crystal display including a pixel area and a driving circuit, comprises at least two electrode links each extended from the pixel area; and at least two pads in contact with the driving circuit and the electrode links, each pad being in contact with each electrode link and having a non-resistivity that depends on a length of the each electrode link. Accordingly, resistance differences that depend on the length of the electrode links are compensated for using electrode pads, thereby making signal conductors with substantially equal resistances.

Abstract: The present invention relates to the use of a scraping element for removing part of a display film coated or laminated to an electrode layer to expose the electrode layer for connection to a drive circuitry. The present invention is directed to a method for removing a portion of a display film coated or laminated on an electrode layer, a process for preparing a display device, and a process for preparing a passive matrix display device.

Abstract: In a display panel module, data driver chips are cascaded to one another and mounted on a display panel. A first flexible printed circuit (FPC) board is connected between a printed circuit board (PCB) and one end of the cascaded data driver chips for transmitting data signals to the data driver chips. A second FPC board is connected between the PCB and the cascaded data driver chips for transmitting power signals to the data driver chips.

Abstract: Disclosed are a liquid crystal display device 10 and a method of making such liquid crystal display device that improves display quality by providing heat dissipation pattern 4 for effectively dissipating heat generated by the driver ICs 2. The heat dissipation pattern 4 is formed on a glass substrate of a liquid crystal panel 1 along one side thereof so as to minimize non-uniform thermal distribution on the liquid crystal panel 1 at locations adjacent to and distant from the driver ICs 2.

Abstract: Disclosed are a liquid crystal display (LCD) and a method for manufacturing the same, in which connection stability is improved when connecting a COG, A COF, or an FPC to a driving circuit. A substrate of the LCD has a display region and a non-display region at a peripheral area thereof. Terminals are provided to electrically connect an external circuit and a circuit of the display region and the non-display region. A flat protective layer is formed on the terminals. A plurality of pads are respectively formed of a first contact region and a flat second contact region, and each of the pads contacts a corresponding terminal, which is formed through a pad contact hold formed on the protective layer, at the first contact region, and each of the pads is electrically connected through an anisotropic conductive resin to a terminal of the external circuit by a pressing process at the flat second contact region.

Abstract: A driving device including a board on which a timing controller for signal processing and a memory are mounted, the board having a conductive field, in which the conductive field has a non-contact region which is coated with an insulating material, and an exposed contact region which is not covered with the insulating material, the exposed contact region formed adjacent to the timing controller or the memory, a conductive member disposed in the exposed contact region, and a shield covering the board and electrically connected to the conductive field via the conductive member.

Abstract: Keeping more space for circuit elements on a chip when dummy terminals for reinforcement are located on it for the purpose of load balancing for pressure welding. A semiconductor device 10 used for COG-implementation comprising an output terminals group 12f arrayed in a first pattern close to one end of a chip, and one or more dummy terminals 12d located close to the one end of the chip in a different region from a region where an output terminals group 12f is located and arrayed in a second pattern different from the first pattern. The second pattern has a shortened width. A power supply portion 14 is located longitudinally adjacent to an output terminals group 12f beside the dummy terminals 12d.

Abstract: A liquid crystal display device comprises a liquid crystal display panel and a semiconductor integrated circuit for driving and controlling the liquid crystal display panel. The number of input/output wires connected to I/O terminals (bonding pads) of the semiconductor integrated circuit is reduced so as to simplify wiring patterns of the I/O wires, whereby degrees of freedom in arranging the I/O wiring patterns are enhanced. The panel has a pair of insulating substrate, and the semiconductor integrated circuit is mounted on one of the paired substrates. The semiconductor integrated circuit has a mode terminal which is fixed to a power supply potential or to a reference potential during operation of the integrated circuit, and power supply dummy terminals connected to the power supply potential or reference potential inside the semiconductor integrated circuit. The wiring patterns formed on the paired insulating substrates connect the mode terminal to the power supply dummy terminals.

Abstract: An array substrate is provided with thereon a display area in which plural pixels are arranged in a matrix shape. Output-side mounting terminals for a source driving circuit chip, which is COG-mounted on a frame area on the outside of the display area, have a plural-row zigzag arrangement. Inspection terminals individually provided in correspondence to the output-side mounting terminals have a zigzag arrangement opposite to the zigzag arrangement of the output-side mounting terminals in a terminal-row direction. Additionally, the output-side mounting terminals and the inspection terminals are disposed below the source driving circuit chip.

Abstract: A display panel including first to third conductive films is provided, which includes: a first signal line including a first portion that includes the first conductive film, an intermediate portion that includes at least two of the first to the third conductive films (“intermediate portion films”), and a contact portion that contacts an output terminal of a driving circuit and includes the intermediate portion films except for at least one of the intermediate portion films; a second signal line intersecting the first signal line and including the second conductive film; a switching element connected to the first and the second signal lines; and a pixel electrode connected to the switching element and including the third conductive film.

Abstract: In a mounting structure in which a component is mounted on a substrate, substrate-side first wirings, substrate-side first terminals formed in a mounting area where the component is mounted on the substrate, substrate-side second terminals formed in the mounting area and substrate-side second wirings are disposed over the substrate. Component-side first terminals and component-side second terminals are provided to the component.

Abstract: In an active matrix panel, a pixel matrix which includes a plurality of gate lines, a plurality of source lines, and thin film transistors is formed on a first transparent substrate. A second transparent substrate is formed opposite to the first transparent substrate. A liquid crystal material is disposed between the first and second transparent substrates. A gate line driver circuit and a source line driver circuit are formed by a P-type, an N-type, a complementary type thin film transistors (including silicon film) or the like on the first transparent substrate. Also, a data processing circuit for performing mask processing or the like is formed by the thin film transistors or the like on the first transparent substrate.

Abstract: A liquid crystal display is provided with several drive segments, between which at least one intermediate surface without drive segments is situated. Such liquid crystal displays are used, in particular, for displaying information contents of low information density, for example, as numerical display elements. This realizes, among other things, a simple and cost-efficient improvement of the electrostatic properties and the legibility, namely also under unfavorable light conditions. For this purpose, the intermediate surface is largely provided with at least one conductive auxiliary layer and a high-frequency connection between the auxiliary layer and a shielding potential is produced.

Abstract: A liquid crystal display device includes a main support supporting a liquid crystal panel and a back light unit, a printed circuit board attached to the liquid crystal panel to provide driving signals to the liquid crystal panel, a separation part between the printed circuit board and the main support creating a gap therebetween, and a holder holding the printed circuit board and the main support together.

Abstract: A liquid crystal display (LCD) device includes lower and upper substrates attached to each other, a plurality of data lines on the lower substrate, a plurality of lead lines on the lower substrate, the lead lines being positioned in a dummy region of the lower substrate, a plurality of scan lines on the upper substrate, the scan lines being connected to respective lead lines and being positioned to intersect with the data lines, and at least one dummy pattern on the lower substrate, the dummy pattern being positioned in the dummy region between an edge of the lower substrate and a corresponding outermost lead line of the plurality of lead lines.

Abstract: A display panel according to the present invention includes: a common wiring (4) formed above a TFT array substrate (30) and having a first terminal (5); a first transparent conductive film (6) formed above the common wiring (4); an interlayer insulating film (15) formed above the first transparent conductive film (6) and having a first terminal portion contact hole (17) formed outside a display area (54) and inside a sealing material (50); and a terminal pad (20) formed above the interlayer insulating film (15) and electrically connected to the common wiring (4) through the first transparent conductive film (6) in the first terminal portion contact hole (17).

Abstract: An LCD and a method of manufacturing the same are provided. The LCD includes first and second substrates defined by a display region and a non-display region, and spaced a predetermined interval apart from each other. The LCD further comprises a liquid crystal layer interposed between the first and second substrates, a conductive part formed on at least one side of the first substrate corresponding to the non-display region. The conductive part has a first dummy pattern formed of metal identical to that of a gate line in the display region. The LCD then comprises a common electrode formed on the second substrate, and a conductive thread pattern that electrically connects the common electrode and the conductive part, and attaches the first and second substrates.

Abstract: A display and a method of manufacturing the same, including a substrate including an image displaying part comprising a plurality of pixels, a dummy testing pad, and a first insulating layer covering the dummy testing pad.

Abstract: A temperature sensor for a display device is provided, which includes a substrate for the display devices, and a temperature sensing line formed on the substrate. The temperature sensing line is a conductor.

Abstract: An array substrate includes a base substrate, a dummy circuit section, a dummy pixel portion, an extended line, a common voltage line, and an overlap portion. Pixel portions are formed in a display area. The dummy circuit section is formed in a peripheral area to protect the pixel portions from static electricity. The dummy pixel portion is adjacent to the dummy circuit section. The dummy circuit section is in an electrically floating state. The extended line is extended from the dummy circuit section and electrically open with respect to the dummy pixel portion. The common voltage line is overlapped with the extended line of the dummy circuit section, the extended line being electrically open with respect to the display area, and thus the display area may be protected from the static electricity which flows into the dummy circuit section.

Abstract: Although portions of electrodes in proximity to a driver IC are covered with an insulating film, part of the electrodes is not covered with the insulating film. Thus, this insulating film absent region functions as an external voltage supply region that receives, from the outside, application of a voltage which is different from an output voltage from a driving unit. When the alignment of the initial state is disarranged, an alignment process is performed by short-circuiting all electrodes of the driving unit and applying a voltage from the outside, through the external voltage supply region, whereby the alignment is restored to the initial state with the driving unit being mounted on a liquid crystal panel.

Abstract: A thin film transistor substrate includes a substrate, first and second pad sections, a signal wiring and a pixel array. The first pad section includes first and second lines. The first pad section receives a driving signal through at least one of the first and second lines. The second pad section includes a third line extending from the first line and a fourth line extending from the second line. The second pad section receives the driving signal through at least one of the third and fourth lines. The signal wiring in a display area is electrically connected to at least one of the third and fourth lines to receive the driving signal from the second pad section. The pixel array receives the driving signal from the signal wiring.

Abstract: The invention provides a semiconductor device which is non-volatile, easily manufactured, and can be additionally written. A semiconductor device of the invention includes a plurality of transistors, a conductive layer which functions as a source wiring or a drain wiring of the transistors, and a memory element which overlaps one of the plurality of transistors, and a conductive layer which functions as an antenna. The memory element includes a first conductive layer, an organic compound layer and a phase change layer, and a second conductive layer stacked in this order. The conductive layer which functions as an antenna and a conductive layer which functions as a source wiring or a drain wiring of the plurality of transistors are provided on the same layer.

Abstract: A display panel including a substrate and many driving chips is provided. The substrate has many pad regions located in a non-display region of the substrate. Each pad region has many first pins with the same length disposed therein, and a pin pitch between two adjacent first pins, a width of each of the first pins, or both the pin pitch and the width vary with the positions where the first pins are disposed in the corresponding pad region. The driving chips are disposed in the non-display region of the substrate. Each driving chip has many second pins, and each second pin is electrically connected to each first pin correspondingly.

Abstract: The present invention realizes a display device with dummy pixel portions and a frame region required for the dummy pixel portions and code notation, in which the frame region is minimized while achieving code notation in required size. In a dummy pixel portion (122) of the present display device, the number of gate electrodes in a thin film transistor formed by a semiconductor layer (11) is reduced to two, so that distances from a contact hole (12) to another contact hole (13) and to a through-hole (14) can be shortened as compared to those in pixel formation portions (112a, 112b), making it possible to dispose the contact hole (13) and the through-hole (14) in a lower portion in the figure. In addition, provided in the vicinity of the center of the dummy pixel portion (122) is only an electrode equivalent to a storage capacitance line (170). Thus, a wide transparent region can be ensured to note a code (22) of a sufficient size in the dummy pixel portion (122).

Abstract: Using thin film transistors (TFTs), an active matrix circuit, a driver circuit for driving the active matrix circuit or the like are formed on one substrate. Circuits such as a central processing unit (CPU) and a memory, necessary to drive an electric device, are formed using single crystalline semiconductor integrated circuit chips. After the semiconductor integrated circuit chips are adhered to the substrate, the chips are connected with wirings formed on the substrate by a chip on glass (COG) method, a wire bonding method or the like, to manufacture the electric device having a liquid crystal display (LCD) on one substrate.

Abstract: A liquid crystal display device comprises a liquid crystal display panel and a semiconductor integrated circuit for driving and controlling the liquid crystal display panel. The number of input/output wires connected to I/O terminals (bonding pads) of the semiconductor integrated circuit is reduced so as to simplify wiring patterns of the I/O wires, whereby degrees of freedom in arranging the I/O wiring patterns are enhanced. The panel has a pair of insulating substrate, and the semiconductor integrated circuit is mounted on one of the paired substrates. The semiconductor integrated circuit has a mode terminal which is fixed to a power supply potential or to a reference potential during operation of the integrated circuit, and power supply dummy terminals connected to the power supply potential or reference potential inside the semiconductor integrated circuit. The wiring patterns formed on the paired insulating substrates connect the mode terminal to the power supply dummy terminals.

Abstract: An electro-optical device includes: a light-shielding film provided below a transistor in a peripheral area surrounding a pixel area of the display. The light-shielding film includes a rectangular opening formed in a channel length direction of the transistor.

Abstract: A display apparatus includes a display substrate, an opposite substrate, a seal line, a driver chip, a gate insulating layer disposed on the display substrate, a first signal line disposed on a first side of the gate insulating layer, and a second signal line disposed on a second side of the gate insulating layer, wherein portions of the first signal line and the second signal line overlap each other along at least a portion of the seal line.

Abstract: An interconnect substrate for use in a liquid crystal module is nearly rectangular in shape as seen in a plan view. Connector portions having a connector pattern that provides electrical connection between the interconnect substrate and the controller substrate are provided one for each end of the interconnect substrate in a longer-side direction thereof. A plurality of connection portions that provide connection between the interconnect substrate and the driver substrate are formed along one side of the interconnect substrate running in the longer-side direction thereof so as to be symmetrical with respect to a normal S that divides the one side into two equal parts. The conductor traces interconnecting the driver substrate and the controller substrate are formed so as to be symmetrical with respect to the normal S.

Abstract: A display panel includes a substrate, a plurality of data lines, a driver integrated circuit, and a plurality of connecting lines. The data lines of the display panel are disposed on a display area of the substrate for signal transmission. The driver integrated circuit is electrically connected to the data lines for providing driving signals required for panel operations. Each data line of the display panel is electrically connected to the driver integrated circuit via a corresponding connecting line. A first connecting line of the connecting lines includes a first section and a second section, wherein a thickness of the second section is substantially thinner than that of the first section.

Abstract: The present invention provides a liquid crystal display panel which exhibits excellent durability by protecting portions of a substrate which are liable to be most easily cracked or chipped. In a liquid crystal display panel arranging a sealing material between a TFT substrate and a CF substrate, and holding a liquid crystal layer between the TFT substrate and the CF substrate, the CF substrate has one-side surface thereof formed in a recessed shape as viewed from above, a flexible printed circuit board is connected to a region of the TFT substrate where the CF substrate and the TFT substrate do not overlap with each other, and a sealing material is formed along a shape of the CF substrate. Portions where the TFT substrate and the CF substrate overlap with each other and correspond to both sides of the portion where the flexible printed circuit board is arranged can be formed such that the sealing material is filled in the portions with no gap.

Abstract: A circuit film comprises a first circuit formed on a film substrate for outputting a driving signal to a display device, and a plurality of input lines formed on the film substrate. The display device includes a display panel which has first and second signal lines, a second-circuit film which has a second circuit for outputting a driving signal to the second signal line, and a control board for controlling the first and second circuits. The plurality of input lines include a first input line for inputting a control signal to the first circuit and a second input line for inputting a control signal to the second circuit. The film substrate is connected to the control board and the display panel such that a driving signal is input from the control board to the first and second circuits through the first and second input lines, respectively.

Abstract: A liquid crystal display device includes a liquid crystal display module, a circuit board, and a shield case. The circuit board is mounted on the liquid crystal display module and has a socket for receiving a power supply plug. The shield case includes an offset portion on a rear part to contain the circuit board. An opening formed with holding members for securing the socket is provided at the offset portion.

Abstract: A liquid crystal display panel includes a first substrate, a second substrate, and a liquid crystal layer formed between the first substrate and the second substrate. A pixel area is formed on the first substrate, and a driver is formed on the substrate and electrically connected with the pixel area. A plurality of lines are electrically connected with the driver, and a plurality of pads are electrically connected with the plurality of lines. The plurality of pads are formed in a straight line and are not electrically connected with each other except for the electric connection with the plurality of lines.

Abstract: A liquid crystal display device (A1) includes a plurality of pixels arranged in a matrix, a plurality of first electrodes (2R, 2G), a plurality of second electrodes (3) intersecting the first electrodes, a liquid crystal layer arranged between the first electrodes and the second electrodes, a color filter directly or indirectly covering each of the first electrodes, and a driver (7) for supplying image display signals to the first electrodes and the second electrodes. The first electrodes are connected to scanning signal supply terminals of the driver to periodically receive a scanning signal. The second electrodes are connected to control signal supply terminals of the driver to selectively receive a control signal. The driver causes the liquid crystal layer to be in either an ON state or an OFF state by supplying the scanning signal and the control signal to the first electrodes and the second electrodes, respectively.

Abstract: A method of forming an oxide film on a surface of a copper alloy, including the steps of providing a copper alloy including copper and an element selected from the group consisting of Mn, Zn, Ga, Li, Ge, Sr, Ag, Ba, Pr and Nd, and diffusing atoms of the element to a surface of the copper alloy so as to form an oxide film on the surface of the copper alloy, wherein a concentration of the element in the copper alloy is more than 0.1 and not more than 20 atomic percentage and within a solubility limit of the element in the copper.

Abstract: In a liquid crystal display unit where a matrix pattern of pixels are defined by gate lines and crosswise data lines, transparent pixel electrodes are formed on the same layer as the data lines and corresponding transparent common electrodes are formed above the transparent pixel electrodes. On the common electrodes the liquid crystal layer is provided. In the aperture of each pixel, the common electrode has a pattern of parallel stripe portions and a peripheral portion outside of the aperture for shielding the field of the corresponding data line. Each pixel electrode cooperates with that parallel stripe portions of the corresponding common electrode to produce inner fringe fields along such parallel stripe portions and has portions that overlap the peripheral portions of the common electrode to produce peripheral fringe fields so that liquid-crystal cells can be uniformly in-plane switched by the inner fringe fields as well as by the peripheral fringe fields.

Abstract: A substrate of a display device for packaging a driving integrated circuit (IC) including an input lead and an output lead includes an input pad group corresponding to the input lead on the substrate along a first direction, an output pad group corresponding to the output lead on the substrate along a second direction transverse to the first direction, an extra input pad group adjacent to the input pad group along the first direction, and an extra output pad group adjacent to the output pad group along the second direction.

Abstract: A thin film transistor substrate and a fabricating method that includes an opening hole that separates a gate shorting line connected to a gate shorting bar used upon a lighting-inspecting of a gate line into an odd and an even gate shorting line is provided.

Abstract: An LCD device of the present invention includes a liquid crystal panel and a gate driving signal wire. The panel includes a gate wire having a plurality of gate lines, and the gate driving signal wire is connected to the gate lines by connecting lines. Therefore, spatial rooms for a panel assembly increase because additional test wire and test pad for VI test can be eliminated. Furthermore, accuracy of the VI tests is enhanced.

Abstract: An electrical display includes a flexible LCD screen capable of folding without creasing about a central spine region and having column and row electrodes. Circuit boards are coupled to the row and column electrodes. Tape automated bonding (TAB) strips are connected to the circuit boards. Electrical conductors are interposed between the TAB strips and the electrodes so that the TAB strips and electrical conductors serve to couple the circuit boards and the electrodes. The electrical conductors are dimensioned to accommodate folding of the screen.

Abstract: A liquid crystal display device according to an embodiment of the present invention includes a liquid crystal display panel which has a plurality of data lines, a plurality of gate lines crossing the data lines, and a plurality of liquid crystal cells that are defined by the data lines and the gate lines; a first data driver disposed at an upper side of the liquid crystal display panel to supply data to odd-numbered data lines; a second data driver disposed at a lower side of the liquid crystal display panel to supply data to even-numbered data lines; a first gate driver disposed at a left side of the liquid crystal display panel to supply a scan pulse to odd-numbered gate lines; and a second gate driver disposed at a right side of the liquid crystal display panel to supply a scan pulse to even-numbered gate lines, and wherein at least any one of the data lines and the gate lines has a line width that varies along its length.

Abstract: A drive film, a drive package for an organic light emitting diode display, an organic light emitting diode display including the same, and a method thereof are provided wherein the drive film includes a base film having an input terminal and an output terminal, a plurality of first signal lines formed on the base film, and a plurality of second signal lines formed on the base film and disposed between the first signal lines at the output terminal.

Abstract: A liquid crystal display device includes a substrate, a plurality of gate lines and a plurality of data lines on the substrate, a first insulation layer on the plurality of the gate lines, a plurality of gate link lines electrically connected to the gate lines, and a plurality of data link lines electrically connected to the data lines, the gate link lines and the data link lines being on the first insulation layer.

Abstract: A method for improving a misalignment of a printed circuit board and a liquid crystal display device with the printed circuit board are disclosed. A printed circuit board having a substrate and PCB lands formed at a portion of the substrate in the horizontal direction is provided and a tape carrier package having TCP leads corresponding to the PCB lands is also provided. The intervals among the PCB lands are amended by the thermal expansion amount of the substrate. After the printed circuit board and the tape carrier package are aligned, the printed circuit board and the tape carrier package are connected to each other by the thermo-compression bonding process. The misalignment due to the thermo-compression bonding process can be improved, decreasing the processing failures and increasing the productivity.

Abstract: An array substrate for a liquid crystal panel includes a plurality of pixel electrodes corresponding to a plurality of pixels, and a common electrode provided common to the plurality of pixel electrodes. An alignment of liquid crystal is controlled by each electric field between each of the plurality of the pixel electrodes and the common electrode. The array substrate further includes a pixel selecting circuit, a line group for pixel selecting circuit, a potential applying circuit, a line group for potential applying circuit, and a common electrode line. The pixel selecting circuit sequentially selects pixels among the plurality of pixels. The line group for pixel selecting circuit is connected to input terminals of the pixel selecting circuit. The potential applying circuit applies a potential to the pixel electrode of a selected pixel. The line group for potential applying circuit is connected to input terminals of the potential applying circuit.

Abstract: A TFT array substrate is fabricated in a reduced number of processes. The TFT array substrate includes gate and data pads with enlarged contact areas to facilitate contact with an inspecting pin of an inspection device. An LCD incorporating the TFT array substrate is inspected by contacting the inspecting pin to the gate and data pads. The TFT array substrate includes first, second, and third conductive pattern groups. The first conductive pattern group includes a gate electrode, a gate line, and a lower gate pad electrode. The second conductive pattern group includes source and drain electrodes, a data line, and a lower data pad electrode. The third conductive pattern group includes a pixel electrode, and upper gate and data pad electrodes. A semiconductor pattern is along and beneath the second conductive pattern group. Gate insulating and protective film patterns are at areas not occupied by the third conductive pattern group.

Abstract: A backlight unit and a liquid crystal display device having the same are disclosed. The backlight unit includes a light source, a light guide plate guiding light emitted from the light source, an optical sheet arranged on the light guide plate, a mold frame receiving the light guide plate and the optical sheet, a printed circuit board (“PCB”) outlet in the mold frame, a printed circuit board (“PCB”) received in the PCB outlet, and a PCB adhesive sheet for adhering the PCB to the mold frame.

Abstract: A method of manufacturing an array substrate for a liquid crystal display device includes forming a gate electrode, a gate line, and a gate pad on a substrate, forming a gate insulating layer on the gate electrode, the gate line, and the gate pad, forming an active layer on the gate insulating layer, forming an ohmic contact layer on the active layer, forming source and drain electrodes, a data line and a data pad on the ohmic contact layer, forming a pixel electrode, forming a gate pad terminal on the gate insulating layer, forming a data pad terminal covering the data pad, forming a passivation layer on the pixel electrode, the gate pad terminal and the data pad terminal, exposing the gate pad terminal and the gate pad by etching the passivation layer and the gate insulating layer, and exposing the data pad terminal by etching the passivation layer.