Abstract: According to one embodiment, a display device includes a first subpixel and a second subpixel. An area, in a plan view, surrounded by a first signal line, a second signal line, a first scanning line, and a second scanning line and including a first pixel electrode is a first area. An area, in a plan view, surrounded by the first signal line, the second signal line, the second scanning line, and a third scanning line and including a second pixel electrode is a second area. The first area has a first distance in the first direction and the second area has a second distance in the first direction. The first distance is greater than the second distance.

Abstract: A pixel array includes pixel unit sets each including a substrate having first and second pixel regions, a scan line, first and second data lines extending along a second direction, first and second active devices respectively in the first and second pixel regions, and first and second pixel electrodes respectively located in the first and second pixel regions and electrically connected to the first and second active devices, respectively. The scan line includes a main scan line and first and second branch scan lines (connected to the main scan line) extending along a first direction. The first active device is electrically connected to the first branch scan line and the first data line. The second active device is electrically connected to the second branch scan line and the second data line. At least one of the first and second data lines is overlapped with the first and second pixel electrodes.

Abstract: A display device of the present disclosure includes: an active area having a first region and a second region; a plurality of sub-pixels in the active area; a plurality of touch electrodes arranged in a matrix form and corresponding to the plurality of sub-pixels, wherein at least one of the touch electrodes in the first region has a different size from another of the touch electrodes in the second region.

Abstract: An organic light-emitting diode (OLED) display is disclosed. In one aspect, the display includes a substrate, a plurality of OLEDs provided over the substrate, and a plurality of pixel circuits provided between the substrate and the OLEDs. Each of the pixel circuits comprises a plurality of transistors each including an active pattern electrically connected to the respective OLEDs. A shield layer overlaps the pixel circuits and the active patterns of the transistors in the depth dimension of the OLED display.

Abstract: The present invention discloses an array substrate, a liquid crystal panel and a display device. The array substrate comprises a plurality of pixel units arranged in array and delimited by a plurality of gate lines and a plurality of data lines cross each other, each pixel unit comprising a thin film transistor, a plate electrode and a slit electrode located above the plate electrode. The slit electrode comprises a plurality of electrode strips and a slit is formed between adjacent electrode strips. Two ends of each slit of the slit electrode both have a turning. The design of turning can increase the intensity of the electric field that controls deflection of the liquid crystal molecules. When the picture content displayed by the display device is switched, most liquid crystal molecules can be deflected quickly, thereby enabling the light effect to be increased and the dark area weakened.

Abstract: A nematic liquid crystal composition having negative dielectric anisotropy (??), and a liquid crystal device element including the liquid crystal composition. The liquid crystal composition has sufficiently low viscosity (?), sufficiently low rotational viscosity (?1), a large elastic constant (K33), and a negative dielectric anisotropy (??) whose absolute value is large, without reducing the refractive index anisotropy (?n) or the nematic-isotropic liquid phase transition temperature (Tni). A VA-mode liquid crystal display element including the liquid crystal composition, the liquid crystal display element having no or minimal display defects and having excellent display quality and a fast response. The liquid crystal display element including the liquid crystal composition is useful for an active matrix-addressed liquid crystal display element and used for, for example, a VA- or PSVA-mode liquid crystal display element.

Abstract: The insulating properties of terminal lines on an array substrate can be maintained without adding any steps for avoiding formation of a counter electrode on the peripheral portion of a color filter substrate. A display includes an insulation film formed to cover an electrode formed on a surface of an array substrate, an oxide semiconductor film formed on a surface of a color filter substrate, and a seal member that is located between the insulation film and the oxide semiconductor film, which face each other, and that bonds the insulation film and the oxide semiconductor film together. An area surrounded by the seal member in plan view is taken as a display area. A portion of the oxide semiconductor film that corresponds to the display area is a conductor, and a portion of the oxide semiconductor film that corresponds to the outside of the display area is an insulator.

Abstract: An organic light emitting diode display is disclosed that includes at least a shield layer on a substrate; a semiconductor layer on the shield layer; a gate insulating layer on the semiconductor layer; a gate electrode on the gate insulating layer; a connection electrode disposed on the same layer as the gate electrode, the connection electrode electrically connected to the shield layer; a source electrode and a drain electrode on the gate electrode, at least one of the drain and source electrodes electrically connected to the semiconductor layer and the connection electrode; an insulating layer on the drain electrode and the source electrode; and a first electrode on the insulating layer and electrically connected to the source electrode.

Abstract: An in-cell touch panel and a display device are provided. Self-capacitance electrodes arranged in the same layer as pixel electrodes are disposed at gaps between the pixel electrodes of the touch panel in accordance with the self-capacitance principle. A touch detection chip can determine a touch position by detection of capacitance variation of the self-capacitance electrodes in a touch period. The touch panel does not need to add additional processes on the basis of the manufacturing process of an array substrate and hence can reduce the manufacturing cost and improve the productivity.

Abstract: A display panel and a method for forming the same are provided. A display panel includes: a first substrate and a second substrate, which are set corresponding to each other; the first substrate includes multiple pixel regions arranged in a matrix form, and a first black matrix is disposed in intervals between the pixel regions; each of the pixel regions includes a first sub pixel region, a second sub pixel region, a third sub pixel region and a fourth sub pixel region; the first sub pixel region includes a first sub pixel unit, the second sub pixel region includes a second sub pixel unit, the third sub pixel region includes a third sub pixel unit; the fourth sub pixel region includes a fourth sub pixel unit and a second black matrix. Accordingly, the display panel may improve display performance.

Abstract: The present disclosure relates to an array substrate and a touch panel. The array substrate includes a pixel electrode layer, a first touch electrode layer and an insulation layer and a second touch electrode layer arranged on the first touch electrode layer in sequence. The pixel electrode layer is not overlapped with at least one of the first touch electrode layer and the second touch electrode layer, and the insulation layer is not provided within a vertical projection area of the pixel electrode layer. In this way, when the thickness of the insulation layer between the first touch electrode layer and the second touch electrode layer is increased to reduce the parasitic capacitance between the touch electrode layers, the dimension of the liquid crystal capacitor and the storage capacitor is prevented from being affected.

Abstract: A display device may include a frequency detector, a control part, and a display panel. The frequency detector may receive an alternating current and may detect (and/or calculate) an alternating-current frequency associated with the alternating current. The control part may be electrically connected to the frequency detector and may generate a control signal using the alternating-current frequency. The display panel may be electrically connected to the control part and may display an image using the control signal.

Abstract: A semiconductor device includes a first and a second conductive films over an insulating surface; a first insulating film over the insulating surface and the first and the second conductive films; a semiconductor film overlapping with the first conductive film with the first insulating film provided therebetween; a third conductive film in contact with the semiconductor film; a fourth conductive film in contact with the semiconductor film and overlapping with the second conductive film with the first insulating film provided therebetween; a second insulating film including a thick region and a thin region, over the semiconductor film and the third and the fourth conductive films; a fifth conductive film overlapping with the semiconductor film with the second insulating film provided therebetween; and a sixth conductive film overlapping with the fourth conductive film over the thin region of the second insulating film.

Abstract: A liquid crystal display includes a first substrate, gate lines on the first substrate, a gate insulating layer on the gate lines, a semiconductor layer on the gate insulating layer, data lines and a drain electrode on the semiconductor layer, a passivation layer which covers the data lines and the drain electrode and in which a contact hole that partially exposes the drain electrode is defined, a common electrode above the passivation layer, a pixel electrode connected with the drain electrode through the contact hole, overlapped with the common electrode, and including a plurality of branch electrodes connected to each other through a connection portion, a contact portion extended from the connection portion and connected with the drain electrode, and a protrusion protruding toward a neighboring pixel and provided at least one corners among the connection portion or the contact portion of the pixel electrode.

Abstract: A liquid crystal display includes a display panel including first and second subpixels, where the first subpixel includes a first switching device including a first electrode connected to the j-th data line, a second electrode connected to a first subpixel electrode and a gate electrode connected to an i-th gate line, the second subpixel includes a second switching device including a first electrode connected to a j-th data line, a second electrode connected to a second subpixel electrode and a gate electrode connected to the i-th gate line, a third switching device including a first electrode connected to the second subpixel electrode and a gate electrode connected to the i-th gate line, and a fourth switching device including a first electrode connected to the j-th data line, a second electrode connected to the first electrode of the third switching device and a gate electrode connected to the i-th gate line.

Abstract: An organic light emitting display device is discussed. The organic light emitting display device includes a driving thin film transistor including an active layer and a gate electrode; a storage capacitor including a first electrode and a second electrode; a first pattern electrode including the gate electrode and the first electrode; an anode disposed on the driving thin film transistor and the storage capacitor; a second pattern electrode connected with an anode contact part which connects an output electrode connected with the active layer and the anode; and a patterned semiconductor layer including the active layer having a semiconductive characteristic and a shield unit having a conductive characteristic.

Abstract: The present invention provides a pixel structure, comprising a pixel layer and data lines, wherein the pixel layer comprises a plurality of pixel areas, and each of the pixel areas comprises an upper area and a lower area, and one lateral side of the upper area and one lateral side of the lower area are respectively provided with one keel, and the pixel layer and the data lines are located in different layers, and projections of the data lines at the pixel layer coincide with the keels. By employing the keels in the pixel areas to cover the data lines under the pixel areas, the data lines can shield light for one lateral side of the pixel areas where the keels are provided for achieving the technical result of reducing the non-display area, increasing the display area and raising the aperture ratio.

Abstract: A liquid crystal display which enhances an aperture ratio and stabilizes a storage voltage includes a first substrate, a second substrate opposing the first substrate, a liquid crystal layer between the first substrate and the second substrate, a gate line, a data line, a first sub-pixel electrode, and a second sub-pixel electrode on the first substrate, a first transistor connected to the gate line, the data line, and the first sub-pixel electrode, and a second transistor connected to the gate line, the data line, and the second sub-pixel electrode and including a source electrode, a drain electrode and at least one floating electrode between the source electrode and the drain electrode.

Abstract: A display device includes a first gate line and a data line intersecting each other, a pixel electrode, a switching element comprising a gate electrode connected to the first gate line, a source electrode connected to the data line, and a drain electrode connected to the pixel electrode, and a connecting portion which connects the drain electrode with the pixel electrode, and a distance between the data line and the connecting portion is less than a distance between the data line and the gate electrode in a first direction perpendicular to the data line.

Abstract: Disclosed is a holographic display including a spatial light modulator (SLM) with pixels, the SLM pixels being on a substrate, the SLM including circuitry which is on the same substrate as the SLM pixels, the circuitry operable to perform calculations which provide an encoding of the SLM.

Abstract: An electro-optical device is capable of high quality images. An electro-optical device (200) includes a first capacitive element (491), a second capacitive element (492), and a third capacitive element (493). The first capacitive element (491) includes a first conductive film (408), a first part of a second conductive film (411), and a first dielectric film (410). The second capacitive element (492) includes a third conductive film (416), a second part of a fourth conductive film (418), and a second dielectric film (417). The third capacitive element (493) includes the third conductive film (416), a third part of the fourth conductive film (418), and the second dielectric film (417). Since a capacitive element that includes a large capacitance value is formed in a narrow region, even if the pixel becomes smaller as the definition is increased, it is possible to realize an excellent electro-optical device in which display defects are suppressed.

Abstract: A method of forming a contact to a semiconductor device that includes forming a vertically orientated channel region on semiconductor material layer of a substrate; and forming a first source/drain region in the semiconductor material layer. The method may continue with forming a metal semiconductor alloy contact on the first source/drain region extending along a horizontally orientated upper surface of the first source/drain region that is substantially perpendicular to the vertically orientated channel region, wherein the metal semiconductor alloy contact extends substantially to an interface with the vertically orientated channel region. Thereafter, a gate structure is formed on the vertically orientated channel region, and a second source/drain region is formed on the vertically orientated channel region.

Abstract: The present invention discloses a display panel, a displayer and the drive method thereof, the display panel including a cell substrate, the outermost side thereof having an FPR film array including a first FPR film and a second FPR film, and an array substrate including a plurality of gate lines and a plurality of data lines. A sub-pixel unit is defined by an i-th line gate line, an (i+1)-th line gate line, a j-th column data line and a j+1-th column data line, i and j being both natural number. The first FPR film is corresponding to the first pixel electrode to convert emitting light of the latter into polarized light in a first direction, and the second FPR film is corresponding to the second pixel electrode to convert emitting light of latter into polarized light in a second direction, the first direction being different from the second direction.

Abstract: A display panel includes a high pixel electrode including a first stem which extends substantially in a first direction, and a second stem which extends substantially in a second direction crossing the first direction, a low pixel electrode including a first stem which extends substantially in the first direction, and a second stem which extends substantially in the second direction, a data line which extends in the second direction, a high storage line which extends substantially in the second direction and overlaps the second stem of the high pixel electrode, and a low storage line which extends substantially in the second direction and overlaps the second stem of the low pixel electrode.

Abstract: A first substrate includes a gate line extending in a first direction, a first interlayer insulating film covering the gate line, a first common electrode formed on the first interlayer insulating film extending in a second direction crossing the first direction, a second interlayer insulating film covering the first common electrode, a source line extending in the second direction, and a third interlayer insulating film covering the source line. A pixel electrode includes a main pixel electrode extending in the second direction on the third interlayer insulating film. A second common electrode includes a second main common electrode extending in the second direction on the third interlayer insulating film and facing the source line. The second common electrode is set to the same potential as the first common electrode. A first alignment film covers the pixel electrode and the second common electrode.

Abstract: A curved display device includes a display panel and members to curve the display panel in a first direction. The display panel includes a display substrate and a counter substrate. The display substrate comprises a pixel electrode disposed on a display area and in which first slits are formed, and the counter substrate comprises a common electrode facing the pixel electrode and in which second slits are formed. A first side area, a central area and a second side area are sequentially located in the first direction on the display area. When the display panel has a flat shape, a portion of the common electrode positioned between two adjacent second slits among the second slits overlaps the pixel electrode by an overlapping width. The length of the overlapping width in each of the first and second side areas is different from that of the overlapping width in the central area.

Abstract: A pixel array of a liquid crystal display is discussed. The pixel array can include a first pixel including a first pixel electrode charged to a first data voltage, an upper common electrode which is positioned opposite the first pixel electrode and forms an electric field, a lower common electrode applying a common voltage to the upper common electrode, and a first storage capacitor for holding the first data voltage during a predetermined period, and a second pixel including a second pixel electrode charged to a second data voltage, the upper common electrode, the lower common electrode, and a second storage capacitor for holding the second data voltage during a predetermined period. The first and second storage capacitors are located in a storage area between the first and second pixels, which are positioned adjacent to each other in a horizontal direction.

Abstract: A display device includes: a plurality of pixel electrodes respectively corresponding to a plurality of unit pixels that constitute an image; a light-emitting element layer stacked on the plurality of pixel electrodes so as to be in contact with each of the plurality of pixel electrodes and provided so as to emit light with a luminance controlled by an electric current; a common electrode provided so as to be stacked on and in contact with the light-emitting element layer above the plurality of pixel electrodes; and a sealing layer made of a light-transmissive material and stacked on the common electrode so as to seal the light-emitting element layer. The sealing layer is formed of a plurality of layers that are stacked on one another. The interface between two adjacent layers of the plurality of layers includes irregularities in regions located above the plurality of pixel electrodes.

Abstract: The present disclosure provides a gate driver circuit, which cascades each even-numbered stage GOA circuit; corresponding to said odd-numbered stage GOA provides an odd-numbered stage scan signal, and odd-numbered stage startup signal, an odd-numbered stage timing signal; corresponding to said even-numbered stage GOA circuit provides an even-numbered stage scan signal, an even-numbered stage startup signal, an even-numbered stage timing signal; through controlling the potential of odd-numbered stage scan signal and even-numbered stage scan signal, coordinating with odd-numbered stage startup signal and even-numbered stage startup signal with different timing, it can control odd-numbered stage GOA circuit and even-numbered stage GOA circuit to respectively carry on forward scanning or reverse scanning. The present disclosure also provides a display device applying said gate driver circuit.

Abstract: A display device and a driving method therefor includes a plurality of unit pixels arranged in a matrix form, a plurality of gate lines extending in a row direction and connected to the unit pixels, respectively, pluralities of first and second data lines extending in a column direction and connected to the unit pixels, respectively, a plurality of charge control lines extending in the row direction and connected to the unit pixels, respectively, a plurality of gate connection lines connected to at least two adjacent gate lines, respectively, and a plurality of charge connection lines connected to at least two adjacent charge control lines, respectively.

Abstract: A pixel structure, an array substrate, a display panel and a display apparatus are disclosed. The pixel structure includes: a first pixel electrode and a second pixel electrode which are arranged along a first direction, and a TFT between the first pixel electrode and the second pixel electrode. The first pixel electrode includes a first extension electrode extending toward the second pixel electrode, and the second pixel electrode includes a second extension electrode extending toward the first pixel electrode; the TFT includes a gate electrode, a source electrode, a first drain electrode and a second drain electrode which are insulated from each other; the source electrode includes a first opening and a second opening, the first drain electrode is connected with the first extension electrode and extends into the first opening, and the second drain electrode is connected with the second extension electrode and extends into the second opening.

Abstract: A thin film transistor array substrate includes a base, a first metal layer having a gate electrode and a first insulating layer covering the base and the first metal layer. A semiconductor layer is formed on the first insulating layer facing but insulated from the gate electrode. The first insulating layer also supports a second metal layer having a source electrode and a drain electrode. A pixel electrode layer is electrically coupled to the source electrode or the drain electrode. A common electrode layer is insulated from the pixel electrode and is configured to receive a common voltage. A transparent conductive layer is formed on the base and is insulated from the pixel electrode. The semiconductor layer, electrically coupled to the source electrode and the drain electrode, is located between the source electrode and the drain electrode.

Abstract: A display device includes a first substrate comprising a pixel area a first pixel electrode on the pixel area and a second pixel electrode overlapping the first pixel electrode; a second substrate including a common electrode and facing the first substrate; and a liquid crystal layer between the first substrate and the second substrate. The first pixel electrode includes first and second sides parallel to a side of the pixel area; third and fourth sides respectively extending from first ends of the first and second sides, inclined with respect to the first and second sides and parallel to each other; and fifth and sixth sides parallel to each other, and connecting the second and first sides with the third and fourth sides, respectively. An acute angle between each of the third to sixth sides, with respect to the first and second sides, exceeds about 135 degrees.

Abstract: A liquid crystal display includes a first substrate, a second substrate disposed to face the first substrate and including a common electrode, and a liquid crystal layer interposed between the first and second substrates, where the first substrate includes an insulating substrate, a thin-film transistor which is disposed on the insulating substrate and include a gate electrode, a first pixel electrode which is disposed on the insulating substrate to be spaced apart from the thin film transistor and charges a first voltage, a second pixel electrode which is disposed on the insulating substrate to be spaced apart from the thin film transistor, is disposed in a same layer as the first pixel electrode, and receives a second voltage having a magnitude different from the first voltage, and a storage electrode disposed on the same layer as the gate electrode and to overlap a portion of the second pixel electrode.

Abstract: Provided is a liquid crystal display device including: a substrate; a first gate line; a first data line and a second data line to which data voltages with different polarities are applied; a first pixel electrode connected to the first gate line and the first data line; a liquid crystal layer formed on the first pixel electrode; and a first common electrode and a second common electrode disposed on the liquid crystal layer, in which the first pixel electrode includes a first subpixel electrode overlapping with the first common electrode and a second subpixel electrode overlapping with the second common electrode. A first voltage and A second voltage are alternatingly applied to the first common electrode and the second common electrode every two or more frames, respectively.

Abstract: A liquid crystal display panel includes multiple pixel units each connected to a data line and a gate line. The pixel unit defines a first region and a second region. A first liquid crystal capacitor is disposed in the first region. A first transistor is disposed in the first region and is connected between the data line and the first liquid crystal capacitor, and has a control electrode connected to the gate line. A second liquid crystal capacitor is disposed in the second region. A second transistor is disposed in the second region and is connected between the data line and the second liquid crystal capacitor, and has a control electrode connected to the gate line. A third transistor is disposed in the second region and is connected between a common voltage and the second transistor and has a control electrode connected to the gate line.

Abstract: A liquid crystal display device includes: a first substrate; a second substrate opposing the first substrate; and a plurality of pixels on the first substrate, a pixel of the plurality of pixels includes: a switching element connected to a gate line and a data line on the first substrate; a first pixel electrode connected to the switching element; and a second pixel electrode connected to the switching element and overlapping the first pixel electrode.

Abstract: An organic light-emitting diode display may have an array of pixels. Each pixel may have multiple subpixels of different colors. To avoid undesired color shifts when operating the display, the display may be configured so that subpixels of different colors are not coupled to each other through parasitic capacitances. The subpixels may include red, green, and blue subpixels or subpixels of other colors. Each subpixel may include an organic light-emitting diode having an anode and a cathode. The anode of each organic light-emitting diode may be coupled to a respective storage capacitor. Capacitive coupling between subpixels can be minimized by configuring the subpixel structures of each pixel so that the storage capacitors of the subpixels do not overlap the anodes of other subpixels in the pixel. Anode and capacitor overlap with subpixel data lines may also be reduced or eliminated.

Abstract: According to one embodiment, a lateral electric-field type of liquid crystal display device includes a display panel and a controller, wherein a frame frequency falls within a range of 1 Hz to 10 Hz, an off-leak current of each of the TFTs has a value of 1×10?15 A or less, a resistivity of a liquid crystal and a resistivity of an alignment film both fall within one of a first range and a second range, the first range being 1×1013 to 5×1013 ?·cm, the second range being 5×1013 to 5×1014 ?·cm, and a relationship of “R1× C1?R2×C2” is satisfied, where R1 is a resistance and C1 is a capacity with respect to each pixel, R2 is a resistance and C2 is a capacity with respect to each pixel.

Abstract: A pixel array is disposed on a first substrate and comprises a pixel having a first electrode layer including a plurality of electrode portions. A light-blocking layer is disposed on a second substrate along a first direction and includes a first light-blocking portion and a second light-blocking portion. The first electrode layer is between the first light-blocking portion and the second light-blocking portion. The first light-blocking portion has a first edge away from the first electrode layer, and the electrode portions include a first electrode portion adjacent to the first light-blocking portion. A brightness distribution of the pixel along the first direction has a first maximum brightness corresponding to a first position on the second substrate. PTB denotes the minimum width from the first position to the first edge, Px denotes the width of the pixel along the first direction, conforming to the following equation: 3.9 + 77.1 ? e - Px 2.7 + 4.5 ? e - Px 34.3 + 0.5 ? e - Px 0.

Abstract: Embodiments of the invention provide an array substrate and a fabrication method thereof and a display device. The fabrication method of an array substrate includes: forming a semiconductor active layer, a gate insulating layer and a gate electrode on a substrate; forming a light-shielding layer; forming a first color filter layer, forming a second color filter layer and forming a third color filter layer; and forming via holes that respectively penetrate through the first color filter layer, the second color filter layer and the third color filter layers; and forming a pixel electrode and source and drain electrodes.

Abstract: An organic light emitting diode display is disclosed that includes a shield layer on a substrate; a semiconductor layer on the shield layer; a gate insulating layer on the semiconductor layer; a first gate electrode on the gate insulating layer; a first interlayer dielectric layer on the first gate electrode; a second gate electrode and a connection electrode on the first interlayer dielectric layer, the connection electrode electrically connected to the shield layer and passing through the semiconductor layer; a second interlayer dielectric layer on the second gate electrode and the connection electrode; a source electrode and a drain electrode on the second interlayer dielectric layer, the drain electrode electrically connected to the semiconductor layer and the source electrode electrically connected to the connection electrode; an insulating layer on the drain electrode and the source electrode; and a first electrode on the insulating layer and electrically connected to the source electrode.

Abstract: A pixel structure of a liquid crystal display panel and a manufacturing method thereof are provided, the pixel structure adopts a tri-gate frame, and one thin film transistor and one storage capacitor are simultaneously formed during the manufacturing process. The storage capacitor has a first via and a second via to connect a first capacitor layer and a second capacitor layer of the storage capacitor. A main storage portion of the storage capacitor further includes a lower portion of a common line, so as to substantially increase the capacity of the storage capacitor and reduce a feed through effect produced by the parasitic capacitor of the liquid crystal display panel, and to improve the display quality of the panel.

Abstract: A liquid crystal display panel and a liquid crystal display device having the liquid crystal display panel are provided in which a dummy gate line outputting a dummy gate pulse having an inverted waveform of gate pulse is formed to be parallel to gate lines outputting the gate pulses and to be perpendicular to touch electrodes supplied with a common voltage.

Abstract: An array substrate, a liquid crystal display panel and a liquid crystal display device of the present disclosure provided are designed to form a MIS storage capacitor by the polycrystalline semiconductor layer, the first metal layer and the insulating layer between the two or the polycrystalline semiconductor layer, the second metal layer and the insulating layer between the two. When one side of the first metal layer or the second metal layer is receiving the negative gray scale voltage, a P—Si in the polycrystalline semiconductor layer will gather to form a cavity, when receiving the positive gray scale voltage, a blocking layer will be formed on the P—Si to reduce the capacity of the MIS storage capacitor.

Abstract: A display substrate includes a base substrate comprising a plurality of sub-pixels, a first switching element disposed on the base substrate and electrically connected to a gate line extending in a first direction and a data line extending in a second direction crossing the first direction, a color filter layer disposed on the switching element and comprising a red color filter, a green color filter, a blue color filter and a white color filter alternately disposed on the plurality of sub-pixels, respectively, a column spacer disposed on the color filter and comprising the same material as that of the white color filter, an insulation layer disposed on the color filter and the column spacer and a pixel electrode disposed on the insulation layer.

Abstract: A technique is provided that reduces dullness of a potential provided to a line such as gate line on an active-matrix substrate to enable driving the line at high speed and, at the same time, reduces the size of the picture frame region. On an active-matrix substrate (20a) are provided gate lines (13G) and source lines. On the active-matrix substrate (20a) are further provided: gate drivers (11) each including a plurality of switching elements, at least one of which is located in a pixel region, for supplying a scan signal to a gate line (13G); and lines (15L1) each for supplying a control signal to the associated gate driver (11). A control signal is supplied by a display control circuit (4) located outside the display region to the gate drivers (11) via the lines (15L1). In response to a control signal supplied, each gate driver (11) drives the gate line (13G) to which it is connected.

Abstract: Embodiments of the invention disclose an array substrate and a manufacturing method thereof and a liquid crystal display. In the array substrate, an additional electrode is formed above a gate line, the additional electrode and the gate line are spaced from each other by a gate insulation layer, and the additional electrode is connected electrically with the common electrode line; pixel electrode extends to over the additional electrode and is overlapped with the additional electrode, the overlapped portion of the pixel electrode and both the additional electrode and the common electrode line forms a storage capacitor. The liquid crystal display according to the embodiment of the invention comprises the above array substrate.

Abstract: A mother substrate for a display device includes: a first mother substrate and a second mother substrate including a plurality of panel regions and facing each other; a first contact electrode and a second contact electrode on the first mother substrate; a common electrode, a first voltage application electrode and a second voltage application electrode separated from each other and on the second mother substrate; and a liquid crystal layer between the first mother substrate and the second mother substrate. The first voltage application electrode is connected to the first contact electrode, and the second voltage application electrode is connected to the second contact electrode. The first voltage application electrode is applied with a first voltage, and the second voltage application electrode is applied with a second voltage different from the first voltage.

Abstract: A liquid crystal display device for improving picture quality includes a common electrode formed on a first substrate, gate lines and data lines formed on a second substrate bonded to the first substrate by a sealing member with liquid crystals disposed therebetween, thin film transistors connected to the gate lines and to the data lines, pixel electrodes formed in subpixel regions, each pixel electrode having a long side in a direction of the gate lines and having a short side in a direction of the data lines fanout lines for supplying a driving signals from the driving chips to the data lines, first conductive spacers formed between the fanout lines connected to different driving chips, for supplying a common voltage to the common electrode, and second conductive spacers formed between the fanout lines connected to the same driving chip, for supplying the common voltage to the common electrode.