Abstract: In order to prevent dielectric breakdown of TFT or an interlayer insulating film by static electricity with a reduced area at low cost, a liquid crystal display device has a configuration in which an interlayer insulating film and an a-Si film are formed in a display area and a control area inside terminals. Image signal lines and scan lines are insulated from each other through the interlayer insulating film and a-Si film in their intersections. On the other hand, only the interlayer insulating film is formed between static electricity protection lines and an earth line outside the terminals. When static electricity is induced, dielectric breakdown is caused to occur in the area outside the terminals. Thus, the display area and the control area are protected from the static electricity.

Abstract: A thin film transistor matrix device including an insulating substrate with a plurality of lines arranged on the substrate, where the lines include first lines and second lines. The device also includes a first connection line extending in a direction transverse to the plurality of lines, where the first connection line and the first lines are configured and arranged to be electrically connected to each other, as well as a second connection line extending in a direction transverse to the plurality of lines, where the second connection line and the second lines are also configured and arranged to be electrically connected to each other. The first and second connection lines are both formed on the same side of an image display region, when considered in plan view. Finally, the plurality of lines are associated, respectively, with drain bus lines and/or gate bus lines.

Abstract: A liquid crystal display apparatus having little influence of noise and able to improve an SN ratio of a light reception system without requiring a calibration operation when turning on the power, is provided. The apparatus has a plurality of display cells 21 having display circuits 210, light receiving cells 22 each including a light receiving element 221, a reference cell 23 having a configuration equivalent to the configuration of the light receiving cell and blocked from incidence of a light upon the light receiving element 221, and a received light signal processing circuit 6 performing differential signal processing of an output signal of the light receiving cell 22 and an output signal of the reference cell 23 and deleting noise.

Abstract: A semiconductor device including photosensor capable of imaging with high resolution is disclosed. The semiconductor device includes the photosensor having a photodiode, a first transistor, and a second transistor. The photodiode generates an electric signal in accordance with the intensity of light. The first transistor stores charge in a gate thereof and converts the stored charge into an output signal. The second transistor transfers the electric signal generated by the photodiode to the gate of the first transistor and holds the charge stored in the gate of the first transistor. The first transistor has a back gate and the threshold voltage thereof is changed by changing the potential of the back gate.

Abstract: An active matrix substrate is provided with first inspection wirings (70, 75) capable of inputting inspection signals to first switching wirings that are not adjacent to each other among the first switching wirings (69, 74) and to second switching wirings that are not adjacent to each other among the second switching wirings (69, 74), and second inspection wirings (72, 77) capable of inputting inspection signals to first switching wirings that are not adjacent to each other and not connected to the first inspection wirings among the first switching wirings (69, 74) and to second switching wirings that are not adjacent to each other and not connected to the first inspection wirings among the second switching wirings (69, 74).

Abstract: To provide means for resolving a problem in which in steps of connecting a panel array substrate and a stick substrate, connection failure is enhanced and reliability is deteriorated by a positional shift caused in connecting operation and a positional shift caused by shrinkage of the substrate, a shape of a total of a stick substrate 103 is constituted by a rectangular shape (Lx1×Ly1) and contiguous electrode pads are arranged to shift by Ts in Y-direction by which lead wirings of the panel array substrate and lead wirings of the stick substrate can be connected with high accuracy and an electrooptical device having high yield and excellent display characteristic is provided.

Abstract: A display device having slim border-area architecture is disclosed. The display device includes a substrate, a plurality of data lines, a plurality of gate lines, a plurality of auxiliary gate lines and a driving module. The substrate includes a display area and a border area. The data lines, the gate lines and the auxiliary gate lines are disposed in the display area. The driving module is disposed in the border area. The gate lines are crossed with the data lines perpendicularly. The auxiliary gate lines are parallel with the data lines. Each auxiliary gate line is electrically connected to one corresponding gate line. The data and auxiliary gate lines are electrically connected to the driving module based on an interlace arrangement. Further disclosed is a driving method for delivering gate signals provided by the driving module to the gate lines via the auxiliary gate lines.

Abstract: When image data is displayed on the display portion of a conventional mobile telephone, characters cannot be displayed thereon, and thus the image data and the characters cannot be simultaneously displayed. In a portable electronic device according to the present invention, a cover member having a first display device (101) for displaying an image (digital still image or the like) and a second display device (102) having a touch input operational portion (for displaying characters, symbols, or the like) are attached to each other so as to allow opening and closing.

Abstract: A liquid crystal display device includes a p-type driving thin film transistor and an n-type driving thin film transistor in a non-display region, and a pixel thin film transistor connected to a gate line and a data line in a display region. The liquid crystal display device further includes a pixel electrode that covers and directly contacts a third drain electrode of the pixel thin film transistor, a shield pattern that covers and directly contacts each of the first source electrode and the first drain electrode of the p-type driving thin film transistor and the second source electrode and the second drain electrode of the n-type driving thin film transistor, and a shield line that covers and directly contacts the data line and a third source electrode of the pixel thin film transistor.

Abstract: A driver circuit for use with a passive matrix or active matrix electro-optical display device such as a liquid crystal display is fabricated to occupy a reduced area. A circuit (stick crystal) having a length substantially equal to the length of one side of the matrix of the display device is used as the driver circuit. The circuit is bonded to one substrate of the display device, and then the terminals of the circuit are connected with the terminals of the display device. Subsequently, the substrate of the driver circuit is removed. The driver circuit can be formed on a large-area substrate such as a glass substrate, while the display device can be formed on a lightweight material having a high shock resistance such as a plastic substrate.

Abstract: A resin overcap with an IC tag used as an overcap being on a metal cap and having an IC tag so that the transmission and reception of signals will not be disturbed by the metal cap, comprising a top panel and a cylindrical side wall hanging down from the circumferential edge of the top panel and in which the metal cap is fitted, wherein a step or a protrusion is formed on an upper portion on the inner surface of the cylindrical side wall to prevent the upward motion of the metal cap fitted in the cylindrical side wall, and an IC tag provided with an IC chip is mounted on the top panel to maintain a predetermined distance D to a top plate of the metal cap fitted into the cylindrical side wall.

Abstract: The present invention is to provide a semiconductor device in which the step can be simplified, the manufacturing cost can be suppressed, and the decrease in yield can be suppressed. A semiconductor device of the present invention includes an antenna, a storage element, and a transistor, wherein a conductive layer serving as an antenna is provided in the same layer as a conductive layer of the transistor or the storage element. This characteristic makes it possible to omit an independent step of forming the conductive layer serving as an antenna and to conduct the step of forming the conductive layer serving as an antenna at the same time as the step of forming a conductive layer of another element. Therefore, the manufacturing step can be simplified, the manufacturing cost can be suppressed, and the decrease in yield can be suppressed.

Abstract: A pad layout structure of a driver IC chip to be mounted to a liquid crystal display panel. The pad layout structure includes power pad sections placed at respective four corners of the driver IC chip and each having a first power pad for supplying first power to the driver IC chip, a second power pad for supplying second power to the driver IC chip, a third power pad for supplying third power to the driver IC chip and a fourth power pad for supplying fourth power to the driver IC chip.

Abstract: Techniques are provided for unifying steps of sealing material so that the yield and the reliability of a liquid-crystal display device become high. A starting film of scanning lines is patterned so that prismatic dummy wirings 301 for the first layer which are not electrically connected are formed in regions R1 and R2, and wirings 302 extending from the pixel section are formed in a region R3, and wirings 303 having connection end portions 303a are formed in a region R4. After an interlayer insulation film is formed, the starting film of the signal lines is patterned so that the dummy wirings 304 for the second layer are formed to embed the gaps between the wirings 301 to 303, and also the wirings 305 and the wirings 303 which extend from the pixel portion are connected to each other. This permits unification of the cross-sectional structure of the sealing material formation region.

Abstract: A mounting board includes two or more metal layers including the outermost metal layer, and a plurality of metal portions, both of which are formed on a substrate. The plurality of metal portions are formed between a first metal layer of the two or more metal layers and a second metal layer of the two or more metal layers, the first metal layer being the outermost metal layer and the second metal layer being different from the outermost metal layer. The second metal layer includes a plurality of first wiring layers extending in a first direction in a plane. The first metal layer is arranged in zigzags in a second direction intersecting with the first direction and includes a plurality of contact pads connected correspondingly to the plurality of first wiring layers through the metal portions.

Abstract: In a liquid crystal display device of IPS mode with a smaller number of layers, a gate electrode is formed on a TFT substrate. A gate insulating film is formed to cover the gate electrode, on which a semiconductor layer is formed. A drain electrode and a source electrode are placed on the semiconductor layer. A planar pixel electrode is formed from ITO on the gate insulating film prior to the formation of the drain electrode, source electrode, image signal line, and the like. This process is performed to prevent the image signal line, the drain electrode, the source electrode, and the like, from being consumed by the cell reaction through a developer during the patterning of the ITO when a pin hole is present in the ITO, in order not to cause disconnection. As a result, it is possible to improve the production yield and achieve high reliability.

Abstract: A display panel including a first substrate having a first panel area and a second panel area, a second substrate disposed above the first panel area, a third substrate disposed above the second panel area, a first liquid crystal layer disposed between the first substrate and the second substrate, a second liquid crystal layer disposed between the first substrate and the third substrate, a first active device array disposed on the first substrate to drive the first liquid crystal layer, a second active device array disposed on the third substrate to drive the second liquid crystal layer, an integrated circuit (IC), and a conductive element is provided. The IC is disposed on the third substrate. The conductive element is disposed between the first substrate and the third substrate to electrically connect the IC to the first active device array.

Abstract: A pixel array module includes a substrate, a pixel electrode array, a patterned conductive layer and a semiconductor circuit unit. The substrate has a first surface and a second surface opposite to the first surface. The pixel electrode array is disposed on the first surface of the substrate. The patterned conductive layer is disposed on the second surface of the substrate, and the patterned conductive layer is electrically connected to the pixel electrode array. The semiconductor circuit unit has at least one input terminal and at least one output terminal, which is electrically connected to the patterned conductive layer. A flat display apparatus is also disclosed.

Abstract: When an active area (AA) side of CS trunk wiring groups (BB1, BB2) is viewed as the inner side, a feed portion (F) of at least one auxiliary capacitance bus line (CsL), which is a path for current flow from the active area (AA) to a point of connection on at least one of CS trunk wiring lines (bb) of each of the CS trunk wiring groups (BB1, BB2), is routed from a start point (S) on the active area (AA) side, through a region (R1) on the inner side of the point of connection, and to a region (R2) on the outer side of the point of connection and connected to the point of connection.

Abstract: A liquid crystal display device includes a liquid crystal display panel a driving integrated circuit connected to the liquid crystal display panel and a protection pad disposed on the driving integrated circuit, wherein the protection pad is formed from a material that substantially limits the maximum temperature of the protection pad.

Abstract: In one embodiment, a liquid crystal display device includes a liquid crystal display panel having an active area for displaying images. The active area has pixels arranged in a matrix shape. The liquid crystal display device includes a first substrate having pixel electrodes of the pixels, a second substrate having a plurality of colored layers arranged side by side, and a counter electrode arranged on the colored layers facing the respective pixel electrodes. A seal element is arranged on a seal portion surrounding the active area and attaching the first substrate and the second substrate. A liquid crystal layer is held between the first substrate and the second substrate. The second substrate includes a convex portion arranged between the seal element and the active area, and the convex portion is formed of the same material as one of the plurality of colored layers.

Abstract: A flat display panel comprises a plurality of driver ICs and one or more flexible printed circuit, a plurality of common wires formed on the substrate to electrically connect the ICs to the one or more flexible printed circuit, and at least one anisotropic conductive film that connects respective connecting terminals of the driver ICs and flexible printed circuit to terminals pads of the common wires. The anisotropic conductive film is laminated over the substrate to cover the terminal pads. The driver ICs and flexible printed circuit are aligned and attached on the anisotropic conductive layer by thermocompression bonding.

Abstract: A display apparatus includes a first gate line extended in a predetermined direction; a second gate line extended in parallel to the first gate line; a first gate output terminal corresponding to the first gate line; a second gate output terminal corresponding to the second gate line; a first gate leading line electrically connecting the first gate line to the first gate output terminal; a second gate leading line electrically connecting the second gate line to the second gate output terminal and having a length longer than said first gate leading line; and a static electric protection line disposed so as to overlap the first gate leading line and the second gate leading line with an insulating layer interposed between said static electric protection line and the first and second gate leading lines, wherein an overlapping area between the first gate leading line and the static electric protection line is larger than an overlapping area between the second gate leading line and the static electric protection li

Abstract: To provide a wireless identification semiconductor device provided with a display function, which is capable of effectively utilizing electric power supplied by an electromagnetic wave. The following are included: an antenna; a power source generating circuit electrically connected to the antenna; an IC chip circuit and a display element electrically connected to the power source generating circuit; a first TFT provided in the power source generating circuit; a second TFT provided in the IC chip circuit; a third TFT provided in the display element; an insulating film provided to cover the first to third TFTs; a first source electrode and a first drain electrode, a second source electrode and a second drain electrode, and a third source electrode and a third drain electrode which are formed over the insulating film; and a pixel electrode electrically connected to the third source electrode or the third drain electrode.

Abstract: A display apparatus includes: a substrate including display areas and a non-display area disposed around edges of the display areas; gate lines disposed in the display areas; data lines disposed in the display areas and crossing the gate lines; pixels disposed in the display areas and connected to the gate lines and data lines; and a gate driver disposed in the peripheral area, between the display areas. The gate driver is connected to the gate lines, to output gate signals to the gate lines.

Abstract: There is an electro-optical device. The electro-optical device includes: a substrate; a plurality of terminals, a plurality of gate lines, a plurality of source lines, and a plurality of wiring lines that are provided on the substrate; a mounting component that is mounted on the substrate with an anisotropic conductive film interposed therebetween and has a plurality of electrodes; and a counter substrate that is disposed so as to be opposite to the substrate and has a counter electrode.

Abstract: An array substrate comprises on an insulative substrate, a plurality of display areas to be portions of a plurality of display panels, in which, each display area is constituted with a plurality of pixels arranged in a matrix, and the pixels is constituted with pixel electrodes formed at intersection portions of plural scan wirings and plural signal wirings; a common wiring is formed outside each display area, for applying a reference voltage to the pixels; a plurality of external-connection terminals is formed outside each display area, to be connected with a driver circuit that drives; and comprises connection wirings located so as to intersect a cutting line along which the insulative substrate is to be cut, for connecting the external-connection terminals in one of the display panels on the insulative substrate with a common wiring in another one of the display panels adjacent to the external-connection terminals, wherein the connection wirings are formed in a conductive layer superior in corrosion resist

Abstract: A liquid crystal display device strengthens an adhesive force of an electrostatic prevention means without increasing a thickness of the liquid crystal display device by bending part of the bottom cover thereof into a “C”-shape, thereby securing a space for adhering an upper indium tin oxide (ITO) of the color filter substrate and the electrostatic prevention means, in a small-sized model having an in-plane switching (IPS) mode liquid crystal panel, and the liquid crystal display device may include a liquid crystal panel configured with a color filter substrate and an array substrate to display an image; a backlight assembly provided at a rear surface of the liquid crystal panel to supply light to the liquid crystal panel; a support main for accommodating and fixing the liquid crystal panel and the backlight assembly; a bottom cover fastened to the support main to include at least one bending portion in which part thereof is bent in a “C”-shape; and a electrostatic prevention means adhered to cover part of an

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 the dummy pixel portions, the number of gate electrodes in a thin film transistor formed by a semiconductor layer is reduced to two, so that distances from a contact hole to another contact hole and to a through-hole can be shortened as compared to those in pixel formation portions, allowing placement of the contact hole and the through-hole in a lower portion in the figure. Provided in the vicinity of the center of the dummy pixel portion is only an electrode equivalent to a storage capacitance line. Thus, a wide transparent region can be ensured to note a code of a sufficient size in the dummy pixel portion.

Abstract: The present invention prevents, when a COF which is connected with an external circuit is bent in a flat display device, the disconnection of lines on the COF. At a position where a line of the COF is connected to terminal portions of a TFT, and the line having a large width is branched into lines having a small width T1 to T3 or T4 to T6. By displacing line branching positions from each other as indicated by an arrow A and an arrow B, when the COF is bent or deformed, stress applied to the line branching positions can be dispersed thus preventing the disconnection of lines.

Abstract: A liquid crystal device includes a positive potential connection line as a first connection line layer to which a first potential lower than a common potential is applied, between a pixel area and a seal member in the plan view, and a peripheral electrode as a second connection line layer that is provided between the positive potential connection line and a liquid crystal layer, is provided to overlap with at least a part of the positive potential connection line in the plan view, and to which a second potential higher than the common potential is applied.

Abstract: A flat panel display device is capable of reducing a resistance difference according to the lengths of signal lines and has a stably designed resistance value of the signal lines arranged in edges of wire groups diverging from a driving circuit unit. The flat panel display device includes a display unit including a plurality of pixels arranged in intersecting regions of signal lines; a driving circuit unit to supply drive signals to the signal lines; and a divergence region having the signal lines diverge into at least two wire groups to connect the driving circuit unit to the pixels, wherein a resistance difference per unit length between the signal lines arranged in a boundary of two wire groups is set to a value that is intermediate of average resistance differences between the adjacent signal lines in the two wire groups.

Abstract: Provided are a flexible printed circuit that reduces the chance of the occurrence of short-circuit failures caused by swarf generated from punching out flexible printed circuit, and an electric circuit structure having this flexible printed circuit and an electric circuit substrate to which the flexible printed circuit is connected. A flexible printed circuit (100) has a wiring pattern (2) formed on the flexible base film (1). The flexible printed circuit (100) is individually punched out to be separated in a condition where the wiring pattern (2) is disposed on the base film (1), and the wiring pattern (2) has a narrowed portion (2c) near the edge of the base film (1).

Abstract: The present invention relates to an in-plane switching mode LCD, in which data electrodes and common electrodes in a unit pixel have the same light transmitting area to reduce the luminance difference according to positive or negative polarity of an applied DC voltage. The in-plane switching mode LCD comprises a first substrate; a plurality of data lines on the first substrate; data electrodes and common electrodes alternately formed in an unit pixel area, the data electrodes having a first transmittance area and the common electrodes having a second transmittance area, wherein the first transmittance area equals the second transmittance area; and a shielding layer formed under outer most ones of the common electrodes, and wherein at least one of the data electrodes has a first width, and at least one of the common electrodes has a second width, the second width being greater than the first width.

Abstract: An electro-optical device includes a scanning-line driving circuit disposed in a peripheral region around the pixel area, and supplies, through scanning lines, a plurality of scanning signals to a plurality of pixel portions in the pixel area. The data-line driving circuit is disposed in the peripheral region, and supplies a plurality of sampling signals to a sampling circuit, which samples image signals and supplies the sampled image signals to data lines. A light-shielding film covers only the scanning-line driving circuit and the data-line driving circuit of a peripheral circuit portion disposed in the peripheral region.

Abstract: A thin film transistor array panel including a display area having a gate line, a data line insulated from and intersecting the gate line, a thin film transistor connected to the gate line and the data line, and a pixel electrode connected to the thin film transistor, and a peripheral area formed on the circumference of the display area, according to an exemplary embodiment of the present invention, includes: a driving signal line formed with the same layer as the gate line in the peripheral area and receiving an external signal; a connection signal line formed with the same layer as the data line in the peripheral area; a disconnection prevention member overlapping the side surface of the connection signal line on the connection signal line; and a connection assistance member formed on the disconnection prevention member and connecting the driving signal line and the connection signal line.

Abstract: A liquid crystal display includes: a first substrate and a second substrate disposed opposite the first substrate; a liquid crystal layer interposed between the first and second substrates and including liquid crystal molecules; a gate line which transmits a gate signal; first and second data lines which respectively transmit first and second data voltages, the first and second data voltages having opposite polarities; a first switching element connected to the gate line and the first data line; a second switching element connected to the gate line and the second data line; a first subpixel electrode connected to the first switching element; and a second subpixel electrode connected to the second switching element. The first and second subpixel electrodes overlap portions of the first and second data lines. The first and second subpixel electrodes include first and second branches, respectively, which are alternately arranged between the first and second data lines.

Abstract: A liquid crystal display panel includes a lower substrate, a printed circuit board, at least one connection unit and a plurality of readout lines. The connection unit is adapted to connect the printed circuit board to a periphery region of the lower substrate, and has a driver. The readout lines are extended from the lower substrate to the printed circuit board through the connection unit having the driver.

Abstract: A drive IC chip (21) including a circuit for driving a display region (41) is mounted on a panel substrate (11). An anisotropic conductive film (31) is interposed between the panel substrate (11) and the drive IC chip (21) and electrically connects the bump electrodes (22) of the drive IC chip (21) and the electrode pads (27) of the panel substrate (11). The anisotropic conductive film (31) is arranged to extend beyond all side surfaces (21b to 21d) other than one specific side surface (21a) of the drive IC chip (21).

Abstract: A display panel having a display region and a sealant region is provided. The display panel includes a first substrate, a second substrate, a sealant and a display medium. The sealant is disposed between the first and second substrates and within the sealant region. The display medium is disposed between the first and second substrates and within the display region. The second substrate includes pixel units and wires electrically connected to the pixel units. The pixel units are disposed within the display region, the wires extend to the sealant region from the display region, and at least a portion of the wires in the sealant region has slots. In particular, each of the slots has a side edge adjacent to the edge of the wire which the slot is disposed therein, and the distances from the side edge to the edge of the wire are not equal.

Abstract: Off-leak current of a TFT, required for a drive circuit configured with a TFT of a single conductivity type, is realized with simple manufacturing steps. The impurity concentration of a source region and a drain region of a TFT is set between 2*1018 cm?3 and 2*1019 cm?3, whereby off-leak current of the TFT can be sufficiently reduced even in a single gate structure.

Abstract: [Problem] To provide a resin overcap provided with an IC tag that can be used as an overcap being fitted onto a metal cap and having an IC tag that is so provided that the transmission and reception of signals will not be disturbed by the metal cap. [Means for Solution] A resin overcap used being fitted onto a metal cap, comprising a top panel and a cylindrical side wall hanging down from the circumferential edge of the top panel and in which the metal cap is fitted, wherein a step or a protrusion is formed on an upper portion on the inner surface of the cylindrical side wall to prevent the upward motion of the metal cap fitted in the cylindrical side wall, and an IC tag provided with an IC chip is mounted on the top panel in a manner of maintaining a predetermined distance D to a top plate of the metal cap fitted into the cylindrical side wall.

Abstract: A liquid crystal display device includes: a transparent electrode substrate including a transparent substrate and a transparent electrode, the transparent electrode being formed on one surface of the transparent substrate; a liquid crystal layer; and a pixel electrode substrate including a first layer and a second layer in this order, the first layer including a plurality of pixel electrodes that are located in a region opposed to the transparent electrode with the liquid crystal layer in between, and a first conductive film that is located in a region other than the region opposed to the transparent electrode with the liquid crystal layer in between, the second layer including a second conducive film that is located in a region overlapping the first conductive film. The first conductive film or the second conducive film or both are electrically isolated.

Abstract: When image data is displayed on the display portion of a conventional mobile telephone, characters cannot be displayed thereon, and thus the image data and the characters cannot be simultaneously displayed. In a portable electronic device according to the present invention, a cover member having a first display device (101) for displaying an image (digital still image or the like) and a second display device (102) having a touch input operational portion (for displaying characters, symbols, or the like) are attached to each other so as to allow opening and closing.

Abstract: In an active matrix type display device having a drive circuit at one side of an active matrix substrate and feeding a common voltage Vcom to a counter substrate side via a common transfer, the area of a frame region is reduced without degrading the yield. A pixel region of the active matrix substrate includes an actual pixel region containing an effective pixel for performing a display in accordance with a data signal supplied by signal lines, and a dummy pixel region positioned at the panel end side as compared to the actual pixel region. At least a portion of a common wiring is arranged in the dummy pixel region of the pixel region to supply a common signal to common transfers arranged on a side facing the side of the active matrix substrate where a bus line drive circuit is arranged.

Abstract: A liquid crystal display device includes first and second substrates facing each other; a liquid crystal layer between the first and second substrates; and a seal pattern between the first and second substrates surrounding the liquid crystal layer, wherein the seal pattern is made of one of frit glass and glass paste.

Abstract: A gate driver-on-array structure integrated into a display includes a substrate and a gate driver structure formed thereon. The gate driver structure is disposed in a peripheral region of the substrate. The gate driver structure includes a first layer metal pattern, a second layer metal pattern, and an insulating layer disposed therebetween. The first layer metal pattern includes connection nodes. The insulating layer has through holes exposing the connection nodes. The second layer metal pattern fills into the through holes and in contact with the connection nodes of the first layer metal pattern so as to implement necessary electrical connection of the gate driver structure.

Abstract: A line-on glass type liquid crystal display panel that is adapted to prevent signal interference and electromagnetic interference between line-on glass type signal lines. The liquid crystal display panel of the invention includes a picture display part with a matrix of liquid crystal cells, multiple line-on glass type signal lines located in an outer area of the picture display part for applying drive signals to drive the liquid crystal cells, and a dummy line formed between the line-on glass type signal lines with at least a layer of insulating film therebetween.

Abstract: An array substrate includes a substrate including a display area and a peripheral area surrounding the display area, data lines disposed in the display area and including a portion thereof extending from the display area into the peripheral area at a first side of a periphery of the display area, and a repair line disposed in the peripheral area and crossing the portion of the data lines extending into the peripheral area. The array substrate also includes a static electricity diode part electrically connected to the repair line and a first data line of the data lines.

Abstract: In spite of an increase in the size of a liquid crystal display panel, it is possible to prevent the defective connection of a flexible wiring board to a transparent substrate of the liquid crystal display panel. A liquid crystal display device includes a pair of transparent substrates arranged to oppose each other across a liquid crystal, for which they are utilized to form a chamber, a plurality of pixels formed along a spreading direction of the liquid crystal, driving circuits for supplying video signals to the pixels, and a flexible wiring board for supplying signals to the input sides of the driving circuits from a substrate on which a control circuit is mounted, the flexible wiring board being divided into a plurality of portions.