Abstract: A low profile display enclosure system for enclosing a display device for viewing that protects the display device from environmental effects. The substantially sealed display enclosure comprises a rigid bezel, a substantially transparent front cover coupled to the bezel, and a rear cover assembly that may include a heat sink portion. A liquid organic coating is applied to portions of the display enclosure and cured in place in order to provide a protective surface.

Abstract: An electrical device includes a circuit board and a metal shield. The circuit board includes an electric cable for transmitting LVDS signals. The metal shield covers the circuit board to shield electromagnetic interference occurring in the circuit board. The metal shield defines an opening facing the electric cable, with at least most of the electric cable exposed.

Abstract: An LCD device adapted to become thinner and simultaneously prevent a defect (or fault) due to static electricity is discussed. The LCD device according to an embodiment includes a liquid crystal display panel, an upper case formed from an insulation material and configured to encompass edges of the liquid crystal display panel, a driver PCB (printed circuit board) configured to apply drive signals to one edge of the liquid crystal display panel, a light source configured to apply light to the liquid crystal display panel, a bottom cover formed from a metal material and configured to receive the light source, and a shielding film disposed under one edge of the upper case opposite to the driver PCB and electrically connected to the bottom cover.

Abstract: A display module is equipped with a display panel having a display screen for displaying images on a front side of the panel. A panel chassis is provided on a rear side of the display panel with respect to the display screen. The display module is assembled with a plurality of fixing members. Each fixing member has a panel holder to hold the display panel as covering a portion of a periphery of the display screen and a chassis coupling member coupled to the panel chassis so that the display panel is interposed between the panel holder and the panel chassis.

Abstract: An active matrix substrate (20a) defining a display region (D) which contributes to display and a frame region (F) which is arranged outside the display region (D) and does not contribute to display, the active matrix substrate (20a) comprising: a grounding wire (23) extending along a circumference of the frame region (F) in the frame region (F), wherein a gate electrode line (14b), part of which overlapping the grounding wire (23) constitutes an electrostatic protection element (25), is arranged in part of the frame region (F) outside the grounding wire (23).

Abstract: A display device capable of minimizing the width of a bezel is presented. The display device includes a display panel displaying an image; a first frame having a first surface configured to support the display panel and a second surface on which a first coupling mechanism is formed; a second frame having a second coupling mechanism and engaged with the first frame; an optical member interposed between the first frame and the second frame; a receptacle including four side-wall parts and a bezel part extended from the side-wall parts to an inside thereof, and receiving the display panel, the first frame, and the second frame therein, wherein the first coupling mechanism and the second coupling mechanism comprise a first fixing projections and a first fixing holes into which the first fixing projections are inserted.

Abstract: A lateral electric field mode liquid crystal device comprising: a first substrate having pixel electrodes and common electrodes which are provided on one surface thereof; a second substrate disposed so as to face that surface of the first substrate with a predetermined distance therebetween; a liquid crystal layer sandwiched between the first substrate and the second substrate; and a loop-shaped sealing member disposed so as to surround the liquid crystal layer, with the liquid crystal device driving the liquid crystal layer by an electric field generated between the pixel electrodes and the common electrodes.

Abstract: Provided is a lateral electric field mode liquid crystal device including: a first substrate; a second substrate; a liquid crystal layer and pixel electrodes and common electrodes. A lateral electric field mode liquid crystal device drives the liquid crystal layer by an electric field generated between the pixel electrodes and the common electrodes, a light shielding layer is formed on a surface of the second substrate disposed close to the liquid crystal layer. A coloring layer is also formed so as to overlap with the pixel electrodes. An overcoat layer protects the coloring layer, and an alignment film is formed. An electrostatic shielding layer is formed of a transparent conductive material on a surface of the overcoat layer.

Abstract: Discussed is an LCD device. The LCD device includes a guide panel, a side cover, a flexible film, and an adhesive member. The guide panel includes a side wall and a support part formed to surround a lower edge of a liquid crystal panel, and supports the liquid crystal panel. The side cover is formed to surround a side surface of the liquid crystal panel and a side surface of the guide panel, and a hole is formed at a portion of the liquid crystal panel having a certain height. The flexible film is disposed between the support part of the guide panel and the liquid crystal panel. The adhesive member adheres a bottom of the liquid crystal panel to the flexible film.

Abstract: A liquid crystal display is provided. The liquid crystal display includes a rear bezel, a signal controlling board module, a light source module, a clipping frame, a display panel and a front frame. The rear bezel has a main portion, a receptacle and a plurality of carrying stages. The carrying stages surround the receptacle. The receptacle protrudes from the main body along a direction while the carrying stages protrude from the main portion toward the reverse of the direction. The main body, the receptacle and the carrying stages are formed in one piece. The signal controlling board module is fixed in the receptacle. The carrying stages carry the light source module. The clipping frame and the rear bezel clip the light source module together. The display panel is disposed on the clipping frame. The front frame and the clipping frame clip the display panel together.

Abstract: A sensor array substrate, a display device including the sensor array substrate, and a method of manufacturing the sensor array substrate are provided. The sensor array substrate includes a substrate, a first sensor formed on a first pixel area of the substrate and configured to detect light, an overcoat layer formed on the first sensor, and a shield layer formed over the overcoat layer, wherein the shield layer overlaps the first sensor.

Abstract: A light trapping optical cover employing an optically transparent layer with a plurality of light deflecting elements. The transparent layer is configured for an unimpeded light passage through its body and has a broad light input surface and an opposing broad light output surface. The light deflecting elements deflect light incident into the transparent layer at a sufficiently high bend angle with respect to a surface normal and direct the deflected light toward a light harvesting device adjacent to the light output surface. The deflected light is retained by means of at least TIR in the system formed by the optical cover and the light harvesting device which allows for longer light propagation paths through the photoabsorptive layer of the device and for an improved light absorption. The optical cover may further employ a focusing array of light collectors being pairwise associated with the respective light deflecting elements.

Abstract: A liquid crystal display device which can be manufactured at a low cost is provided. The liquid crystal display device includes a TFT substrate, a CF substrate of a size smaller than a size of the TFT substrate, and a liquid crystal layer sandwiched between the TFT substrate and the CF substrate. A ground pad is formed on a portion of the TFT substrate where the CF substrate does not overlap with the TFT substrate. A transparent conductive film is formed on an upper surface of the CF substrate. The transparent conductive film of the CF substrate and the ground pad formed on the TFT substrate are electrically connected with each other via a thermocompression bonding conductive tape. A double-sided adhesive tape is arranged between the thermocompression bonding conductive tape and an upper surface of the CF substrate and between the thermocompression bonding conductive tape and the TFT substrate.

Abstract: A display device includes a display panel, a back light module, a printed circuit board and a ground slice. The back light module includes a first frame, a second frame and a light source disposed between the first frame and the second frame. The first frame has a first side plate having an opening, and the second frame has a second side plate opposite to the first side plate. The printed circuit board includes a control circuit electrically connected to the display panel. The printed circuit board is disposed at a side of the back light module, and the control circuit is disposed at the outer side of the first side plate and the second side plate, such that the control circuit is opposite to the second side plate through the opening. The ground slice is connected between the control circuit and the second side plate through the opening.

Abstract: Embodiments of the present disclosure provide a liquid crystal display device having a liquid crystal display panel for displaying images, a lower receiving member for receiving the liquid crystal display panel, and a source PCB disposed on a side of the lower receiving member to supply a driving signal to the liquid crystal display panel. The liquid crystal display device includes a shield case arranged on rear surface of the lower receiving member. The shield case includes a body that protects a driving board, a fixing portion that fixes the source PCB to the lower receiving member, and a connection portion that connects the body to the fixing portion. The connection portion extends from an edge of the shield case. The liquid crystal display device includes an upper receiving member that combines with the lower receiving member to cover the liquid crystal display panel.

Abstract: Each of a display panel and a display device includes a display region in which an image with uniform display quality is displayed and a curved line can be displayed in the contour. The display panel includes a shielding member and a plurality of pixels arrayed in a display region, wherein the shielding member includes a shielding curved portion having a curved planar shape, and the shielding curved portion shields the plurality of pixels to form a curved contour of the display region.

Abstract: A low profile display enclosure system for enclosing a display device for viewing that protects the display device from environmental effects and is configured to dissipate heat generated within the display enclosure. The substantially sealed display enclosure comprises a rigid bezel, a substantially transparent front cover coupled to the bezel, and a rear cover assembly that includes a heat sink portion. The thickness of the bezel is minimized to provide the enclosure with a low profile about the periphery of the display device enclosed therein. Thermal control devices may be mounted within the enclosure to modulate a temperature within the enclosure.

Abstract: A low profile display enclosure system for enclosing a display device for viewing that protects the display device from environmental effects and is configured to dissipate heat generated within the display enclosure. The substantially sealed display enclosure comprises a rigid bezel, a substantially transparent front cover coupled to the bezel, and a rear cover assembly that includes a heat sink portion. The thickness of the bezel is minimized to provide the enclosure with a low profile about the periphery of the display device enclosed therein. Thermal control devices may be mounted within the enclosure to modulate a temperature within the enclosure.

Abstract: A mother substrate for a liquid crystal display panel includes a plurality of antistatic circuits connected with driving signal lines, respectively, and a plurality of switching circuits interposed between adjacent antistatic circuits of the antistatic circuits, respectively. Each switching circuit is controllable to electrically interconnect the adjacent antistatic circuits to one another when an inspection of a post-production available area is performed, and to electrically isolate the adjacent antistatic circuits from one another when a normal operation of the post-production available area is performed.

Abstract: A liquid crystal display device includes a liquid crystal display panel having a first surface and a second surface facing the first surface. The device includes a light guide panel having a light guiding portion facing the second surface of the liquid crystal display panel and a support protruding from the light guiding portion to the liquid crystal display panel. The device further includes an optical film interposed between the light guiding portion and the second surface of the liquid crystal display panel, and a frame that houses the liquid crystal display panel, the light guide panel, and the optical film. The device also includes a shielding portion interposed at least between the light guide panel and the frame.

Abstract: The invention relates to an electro-optical device having an electro-optical panel and a supporting frame that supports the electro-optical panel either directly or indirectly. The supporting frame of the electro-optical device according to an aspect of the invention includes: a resin base frame member; and a metal member that has an embedded portion that is covered inside the resin base frame member and an exposed portion that is exposed from the resin base frame member. In the configuration of the electro-optical device of the invention, the exposed portion of the metal member has an inner exposed portion that is exposed at a middle face of the inside of the supporting frame viewed along the thickness direction of the supporting frame. At least one of the electro-optical panel, which is supported inside the supporting frame, and other member is in contact with the inner exposed portion of the metal member.

Abstract: The present invention is related to a display with slide structure. The display comprises a rear casing, a stand, a fixing unit, a movable unit and at least one spring. The stand has an arc structure disposed beneath. The fixing unit is firmly disposed at the rear casing and contains at least one first holding part and at least one rail. The movable unit connects with the stand and contains at least one second holding part; wherein the movable unit is repeatedly movable by means of the rail. The spring is respectively connected to the first holding part and the second holding part with two ends. Whereby, the stand could be repeatedly movable against the rear casing by means of the movable unit and touch a flat surface by distinct sites of the arc structure, so that the display might maximize its inclined angle.

Abstract: A liquid crystal display device includes a substrate; gate and data lines disposed on the substrate crossing each other to define a plurality of pixel regions; a plurality of pixel electrodes disposed in the pixel regions; a common electrode which is patterned to have common electrode pattern portions, each common electrode pattern portion corresponding to a respective pixel region; a plurality of sensing lines disposed on the common electrode and electrically connected with the common electrode; and at least one an electric field shield layer disposed over a region between adjacent common electrode pattern portions.

Abstract: A backlight chassis is constituted by combining a right end chassis plate, a left end chassis plate, and an intermediate chassis plate obtained by cutting a metal sheet into a predetermined shape and pressing. A trough portion is formed in each chassis plate at a portion to be the long side of the backlight chassis, and the trough portions are superimposed at the boundary of adjoining chassis plates. Furthermore, a superimposed portion constituting a beam-shaped portion is provided at the boundary of adjoining chassis plates. The chassis plates are coupled by screws penetrating the superimposed portion of the trough portions or the beam-shaped portions. The right end chassis plate and the left end chassis plate have point symmetric shapes.

Abstract: Disclosed is an LCD device capable of enhancing a display quality on a screen by minimizing feature changes of light emitting diodes (LED) due to heat in a structure that heat is rapidly emitted, from the LED serving as a light source, to outside of a lower cover. The LCD device comprises an LC panel; a plurality of light emitting diodes disposed below the LC panel, and supplying light to the LC panel; a lower cover having one or more heat emitting holes at a bottom surface adjacent to the light emitting diodes, and receiving the light emitting diodes in correspondence to one or more inner side surfaces thereof; and a heat emitting sheet disposed in the lower cover so as to correspond to the one or more heat emitting holes.

Abstract: An exemplary liquid crystal display includes a liquid crystal panel, and a one-piece frame accommodating the liquid crystal panel. The frame includes a surrounding wall defining a notch in the surrounding wall, a supporting board extending inward from an inner surface of the surrounding wall, and a fixing member received in the notch. The surrounding wall and the supporting board cooperatively define a space for accommodating the liquid crystal panel. The fixing member is inclined toward the space in a free state, and is outwardly pressed by application of an external force in a direction away from the space to allow the liquid crystal panel to be placed in the space and on the supporting board, and elastically holds the liquid crystal panel in position against the supporting board after releasing of the external force.

Abstract: A liquid crystal display device which can be manufactured at a low cost is provided. The liquid crystal display device includes a TFT substrate, a CF substrate of a size smaller than a size of the TFT substrate, and a liquid crystal layer sandwiched between the TFT substrate and the CF substrate. A ground pad is formed on a portion of the TFT substrate where the CF substrate does not overlap with the TFT substrate. A transparent conductive film is formed on an upper surface of the CF substrate. The transparent conductive film of the CF substrate and the ground pad formed on the TFT substrate are electrically connected with each other via a thermocompression bonding conductive tape. A double-sided adhesive tape is arranged between the thermocompression bonding conductive tape and an upper surface of the CF substrate and between the thermocompression bonding conductive tape and the TFT substrate.

Abstract: A liquid crystal display device includes a liquid crystal panel, a backlight, a frame having flexibility which includes a base portion and a side portion, and a case which is attached on a side opposite to the display surface side of the frame and engages with the frame, wherein a claw portion which is provided on an inner surface of the side portion of the frame and projected toward a liquid crystal panel and, a protruding portion which pushes the claw portion toward the liquid crystal panel is provided on at least one of the inner surface of the side portion of the case and an outer surface of the side portion of the frame, and the claw portion which is contact with the display surface of the liquid crystal panel in a state in which the claw portion is pressed by the protruding portion.

Abstract: A low profile display enclosure system for enclosing a display device for viewing that protects the display device from environmental effects. The substantially sealed display enclosure comprises a rigid bezel, a substantially transparent front cover coupled to the bezel, and a rear cover assembly that may include a heat sink portion. A liquid organic coating is applied to portions of the display enclosure and cured in place in order to provide a protective surface.

Abstract: A liquid crystal display includes a liquid crystal display panel, a back light unit attached to the liquid crystal display panel having a light source and a light guide plate, a mold frame attached to the back light unit, and a bezel within the mold frame for supporting the mold frame. The bezel includes a first seat having a base and a first side wall extending from a perimeter of the base, and a second seat having a step extending from the first side wall and a second side extending from a perimeter of the step.

Abstract: A low profile display enclosure system for enclosing a display device for viewing that protects the display device from environmental effects and is configured to dissipate heat generated within the display enclosure. The substantially sealed display enclosure comprises a rigid bezel, a substantially transparent front cover coupled to the bezel, and a rear cover assembly that includes a heat sink portion. The thickness of the bezel is minimized to provide the enclosure with a low profile about the periphery of the display device enclosed therein. Thermal control devices may be mounted within the enclosure to modulate a temperature within the enclosure.

Abstract: A liquid crystal display assembly includes an enclosure including an opening, a lens received in the opening, a printed circuit board (PCB) mounted in the enclosure, a shielding frame mounted on the PCB, a liquid crystal module electrically connected to the PCB and mounted inside the shielding frame, and a double-sided tape that attaches the shielding frame to the enclosure and the lens. A length, a thickness, and a width of the lens are substantially equal to a length, a thickness, and a width of the opening of the enclosure. The shielding frame protects the liquid crystal module from electromagnetic interference. The lens is directly supported by the shielding frame.

Abstract: A liquid crystal display device includes: first and second substrates facing and spaced apart from each other; a liquid crystal layer between the first and second substrates; a first polarizing plate on an outer surface of the first substrate; a second polarizing plate on an outer surface of the second substrate, the second polarizing plate including an anti-static pressure sensitive adhesive (ASPSA) layer; and a conductive tape electrically connected to the ASPSA layer.

Abstract: A display unit has a display module and a housing case holding the display module. The housing case has a first member made of an electrically conductive material and a second member. The second member has an inner edge portion superposed with an outer edge portion of the first member and is made of an electrically nonconductive material. The second member is positioned outside the first member and is fixed to the first member. The first member has a step in its outer edge portion. The step extends over a whole area superposed with the second member. The step has an inner wall protruding and end outer wall dented as compared with a middle portion inside the outer edge portion of the first member. The second member has an inner edge portion arranged in a recess of the outer wall of the step.

Abstract: A flat panel display has an optically-transparent electrically-conductive layer, especially an indium tin oxide layer, directly formed on an outer front surface of a liquid crystal display (LCD) assembly having a front plate, a rear plate, and a layer of liquid crystal material interposed between said front and rear plates. The optically-transparent electrically-conductive layer is preferably uniform and functions as an integral heater when connected to a direct current power source.

Abstract: An image display apparatus includes a display panel having a plurality of wirings and a plurality of display devices connected to the plurality of wirings, a control circuit substrate which outputs a control signal and is arranged on a backside of the display panel, and a flexible printed circuit board which has a flexible substrate and wirings formed on the flexible substrate and electrically connects the display panel and the control circuit substrate. The flexible printed circuit board has an angular shape. In addition, a conductive cover covers the flexible printed circuit board from a portion connected to the control circuit substrate to a portion connected to the display panel with an angular shape according to the shape of the flexible printed circuit board, and is connected to the control circuit substrate.

Abstract: In a backlight device, a diffuser plate and a plurality of optical sheets are disposed above a base tray that includes a plurality of cold-cathode tubes therein. The diffuser plate is sandwiched in between a base member, which holds the bottom surface thereof, and a facing portion of an inner frame disposed on the top surface side thereof. A holding protrusion is arranged on the facing portion so as to abut on an exposed portion located on the periphery of the diffuser plate. According to this construction, even when the backlight device is used in an upright orientation, the diffuser plate can be prevented from leaning forward, and thereby pressure applied on the optical sheets can be prevented.

Abstract: Embodiments of the present invention may include an apparatus and method for ruggedizing a Liquid Crystal Display (LCD). Embodiments of the present invention may be configured to impart little or no stress to the LCD, while also shielding the LCD from adverse effects of electromagnetic interference (EMI). A conductive adhesive, a metal frame, and a assembly support panel may be used to provide a electrically conductive path for controlling the EMI. A protective glass may be used to shield the LCD from environmental effects and a heater glass allows for operation of the LCD in different thermal conditions.

Abstract: A shielding structure of thin type monitor device, includes: a monitor body; a first shielding box which is arranged in the monitor body, which is formed by cutting and bending a metal plate, which includes a flat plate portion having rectangular shape, and a terminal supporting portion which is formed by bending one end portion of the flat plate portion, into which a terminal is passed through, and which is fixed on a metal plate in the monitor body that is grounded; a terminal holder which includes a terminal hole which contacts with an opposite side of the terminal supporting portion with respect to the flat plate portion, through which the terminal is passed, and which forms a part of case of the monitor body; and a second shielding box which is formed by cutting and bending a metal plate, which includes a protecting portion that has a rectangular shape, that is arranged such that it contacts with the terminal supporting portion and that is made be parallel with the flat plate portion, and a standing port

Abstract: The present invention relates to a flat-panel display member, including at least an anti-reflection layer, an electrically conductive layer and a transparent resin layer, having the anti-reflection layer disposed on a first face of the electrically conductive layer, and having the transparent resin layer disposed on a second face on the other side of the first face of the electrically conductive layer, wherein a peripheral portion of the above flat-panel display member has an electrode reaching the above electrically conductive layer or the above transparent resin layer from the outermost surface of said first face side. The present invention provides a flat-panel display member capable of being produced with good production efficiency and excellent in electromagnetic wave shielding performance and visibility, and its manufacturing method.

Abstract: A liquid crystal module includes a liquid crystal panel, a printed wiring board, a rear frame, a plurality of protrusion portions and first and second positioning portions. The rear frame supports the liquid crystal panel. The protrusion portions protrude from a rear face of the rear frame and fixedly support the printed wiring board on upper faces of the protrusion portions. The first and second positioning portions further protrude from at least one of the protrusion portions. The first positioning portion positions the printed wiring board in a first direction. The second positioning portion positions the printed wiring board in a second direction perpendicular to the first direction.

Abstract: The present invention provides a liquid crystal display device which can enhance display quality and reliability by preventing the intrusion of foreign materials to a display screen of a liquid crystal display panel thus preventing the adhesion of the foreign materials to the display screen of the liquid crystal display panel. On an upper surface of a peripheral portion of a split mold frame housing a liquid crystal display panel, rubber cushions which are split in four are arranged at corner portions of the peripheral portion in an adhesive manner. With respect to the split portions of the rubber cushions at the corner portion, on a long-side mold frame, extending portions formed by extending both end portions of the long-side rubber cushion larger than a predetermined length are integrally formed and are arranged in an adhesive manner. On a short-side mold frame, a short-side rubber cushion having a predetermined length is arranged.

Abstract: An exemplary bezel includes two generally L-shaped bezel parts and two generally I-shaped bezel parts. All the bezel parts are joined end-to-end to cooperatively define a window therebetween, and this assembly is configured to accommodate a display panel. A minimum area of a rectangular region that can be occupied by the two generally L-shaped bezel parts alone includes a central unoccupied portion sufficient in size to accommodate the two generally I-shaped bezel parts.

Abstract: A gasket includes an elastic member absorbing an external shock, a conductive member surrounding the elastic member, and a reinforcing member disposed within the conductive member and extending along a bottom surface and a side surface of the conductive member. A screen spacer includes an elastic member absorbing an external shock, and a reinforcing member disposed on one side of the elastic member. A display device includes a driving circuit substrate supplying a driving signal to a display panel, a chassis receiving the display panel and the gasket attached to the driving circuit substrate and contacting the chassis, the gasket grounding the driving circuit and the chassis.

Abstract: The present invention provides a liquid crystal display device capable of protecting a printed circuit board from electromagnetic interference. The LCD device of the present invention includes a LCD panel for presenting an image, a backlight assembly for illuminating light to the LCD panel, a bottom chassis for securing the LCD panel and the backlight assembly, a first printed circuit board seated on a rear surface of the bottom chassis for generating signals to be supplied to the LCD panel on the basis of externally input signals, a first connector coupled with a signal transfer film which provides the input signal of the first printed circuit board, a shield case made of a conductive material for protecting an upper surface of the first printed circuit board, and a first conductive adhesive member interposed between the first connector and the shield case for discharging an electromagnetic wave from the first connector to the shield case.

Abstract: A display assembly includes a display bezel. A display is mounted to the display bezel. A display cable is coupled to the display. A display cover is coupled to the display bezel such that the display cover is operable to be decoupled from the display bezel while the display remains mounted to the display bezel and the display cable remains coupled to the display. The display cover may then be removed and personalized or replaced with a personalized display cover quickly and easily.

Abstract: An electrically conductive film is placed between a contact finger and an electrically conductive polarizing plate which hold a display panel therebetween, and static electricity accumulated in the display panel is released to a front frame through the electrically conductive film and the finger. This structure makes it possible to prevent deterioration in the display quality of a display device due to static electricity.

Abstract: A Flat Panel Display (FDP) includes: a display device arranged on a substrate; an encapsulation substrate adapted to encapsulate the display device; a conductive layer arranged on an outside surface of the encapsulation substrate; an anisotropic conductive material arranged on the conductive layer; and a bezel arranged in contact with the anisotropic conductive material. A method of fabricating an FDP includes: forming a display device on a substrate; encapsulating the substrate with an encapsulation substrate; forming a conductive layer on an outside surface of the encapsulation substrate; forming an anisotropic conductive material on the conductive layer; and mounting the substrate on a bezel such that the bezel contacts the anisotropic conductive material.

Abstract: An exemplary liquid crystal display includes a liquid crystal panel, and a one-piece frame accommodating the liquid crystal panel. The frame includes a plurality of side walls arranged end to end, a supporting board extending inward from inner surfaces of the side walls, and at least two liquid crystal panel fixing members. The supporting board abuts the liquid crystal panel. The at least two liquid crystal panel fixing members press at least one respective lateral side of the liquid crystal panel such that the liquid crystal panel is pressed slightly toward the supporting board.

Abstract: A liquid crystal display device includes a pixel electrode, a thin film transistor, a gate line electrically coupled to the pixel through the thin film transistor and a first auxiliary layer having a first connecting portion overlapped with the pixel electrode and a second connecting portion overlapped with the gate line. The pixel electrode is non-overlapped with the gate line and the first auxiliary layer is electrically insulated from the pixel electrode and the gate line. When a white defect occurs, the pixel electrode is electrically connected to the gate line through the first auxiliary layer thereby repairing the white defect as a black defect.