Abstract: A display panel and a display device are provided. The display panel includes an array substrate and an opposite substrate arranged oppositely; a sealant disposed in non-display areas; and a peripheral wiring disposed in the non-display areas of the array substrate and/or the opposite substrate and including at least one electrostatic discharge (ESD) structure.

Abstract: A snap-fit for fixing optical films is disclosed. The optical film includes at least one ear hook arranged above a border of a plastic frame. The plastic frame is assembled with a back frame so as to fix a light guiding plate within the back frame. The snap-fit includes a press portion and a connection portion extending from a first side of the press portion. The connection portion and the press portion cooperatively form an angle with a predetermined degree. The press portion presses the ear hook of the optical films on the border of the plastic frame. The connection portion clasps with the hook of the sidewall. By adopting the snap-fit, not only the narrow bezel design can be achieved, but also the optical film can be stably fixed. A backlight module with the above snap-fit and the liquid crystal display are also disclosed.

Abstract: A method of fabricating a pixelated imager and structure including a substrate with a bottom contact layer and active element blanket layers deposited on the bottom contact layer. The blanket layers are separated into an array of active elements with trenches isolating adjacent active elements in the array. A dielectric passivation/planarization layer is positioned over the array of active elements. An array of active element readout circuits overlies the passivation/planarization layer above the trenches with one active element readout circuit coupled to each active element of the array of active elements. Each active element and coupled active element readout circuit defines a pixel and the array of active elements and the coupled array of active element readout circuits defines a pixelated imager, and the readout circuit coupled to each active element includes at least one TFT with an active channel comprising a metal-oxide semiconductor material.

Abstract: A thin film circuit includes a thin film transistor with a metal oxide semiconductor channel having a conduction band minimum (CBM) with a first energy level. The transistor further includes a layer of passivation material covering at least a portion of the metal oxide semiconductor channel. The passivation material has a conduction band minimum (CBM) with a second energy level. The second energy level being lower than, equal to, or no more than 0.5 eV above the first energy level. The circuit is used for an electronic device including any one of an AMLCD, AMOLED, AMLED, AMEPD.

Abstract: A method including providing a substrate with a gate, a layer of gate insulator material adjacent the gate, and a layer of metal oxide semiconductor material positioned on the gate insulator opposite the gate, forming a selectively patterned etch stop passivation layer and heating at elevated temperature in an oxygen-containing or nitrogen-containing or inert ambience to selectively increase the carrier concentration in regions of the metal oxide semiconductor not covered by the etch stop layer, on which overlying and spaced apart source/drain metals are formed. Subsequently heating the transistor in an oxygen-containing or nitrogen-containing or inert ambience to further improve the source/drain contacts and adjust the threshold voltage to a desired level. Providing additional passivation layer(s) on top of the transistor with electric insulation and barrier property to moisture and chemicals in the surrounding environment.

Abstract: The backlight module contains a back plate and a middle frame. The middle frame contains at least three positioning strips positioned along three edges on a side of the back plate facing a light emission face of the backlight module. A display device containing the backlight module is also disclosed. The back plate provides locking mechanisms involving side walls and locking pieces, and the separate strips of the middle frame are slid into position along the back plate and reliably locked. There is no need to use bolts or other fastening means, reducing the difficulty in assembly/disassembly. The thinning of the backlight module and the display device is effectively achieved.

Abstract: A light guide plate (LGP) includes a positioning block that includes a positioning block body and a liquid filled and hermetically sealed in a receiving compartment formed in the interior of the positioning block body. The liquid is expandable with a drop of temperature so as to increase a volume thereof and thus enlarge a size of the positioning block body through elasticity of the positioning block body. In this way, the LGP positioning block is adjustable with the variation of the surrounding temperature so as to achieve effective positioning of the light guide plate and providing high reliability of a liquid crystal display device including the light guide plate.

Abstract: A method for manufacturing a light guide plate (LGP) positioning block thereof includes providing a positioning block body of a LGP positioning block and filling and sealing a liquid in a receiving compartment formed in the interior of the positioning block body. The liquid is expandable with a drop of temperature so as to increase a volume thereof and thus enlarge a size of the positioning block body through elasticity of the positioning block body. In this way, the LGP positioning block is adjustable with the variation of the surrounding temperature so as to achieve effective positioning of the light guide plate and providing high reliability of a liquid crystal display device including the light guide plate.

Abstract: The present invention discloses a curved display device. The curved display device comprises a frame bracket and a flexible towing component. Wherein, at least two fixed components are arranged on the frame bracket, the flexible towing component is connected between the two fixed components and tows the two fixed components, so that a main surface of the frame bracket assumes a curve Through the above way, the present invention can keep the frame bracket being bended so that the curvature of the curved display device can be kept.

Abstract: An edge-type backlight source assembly includes at least one quantum bar (QD) tube bracket, at least one QD tube fixed within the QD tube bracket, a plurality of LED lamp bars, and a connector. The LED lamp bar includes a substrate and a plurality of LED lamps on the substrate, and the LED lamps emit blue light. The substrate is attached to a bottom of the QD tube bracket. The LED lamps are received within the QD tube bracket and are arranged to be opposite to the QD tube. The connector electrically connects with the adjacent two LED lamp bars and is fixed on a sidewall of the QD tube bracket. A backlight module is also disclosed. The connector, which is fixed on the sidewall of the QD tube bracket, electrically connects to the two adjacent LED lamps to ensure the wiring connection between the lamp bars.

Abstract: A structural component of liquid crystal panels and gate COFs, and a LCD are disclosed. One end of the gate COF structure connects to an edge of the liquid crystal panel, and the gate COF structure is bent from the edge of the liquid crystal panel toward a back side of the liquid crystal panel. The other end of the gate COF structure connects to the back side of the liquid crystal panel, and the backlight module is arranged behind the gate COF structure. The front frame is arranged around an outer side of the bending portion of the gate COF structure, and the liquid crystal panel, the backlight module, and the front frame cooperatively define a receiving space for the gate COF structures. The enhanced gate COF structures of the liquid crystal panel are compact such that the thin and narrow border design may be realized.

Abstract: A full-color AM OLED includes a transparent substrate, a color filter positioned on an upper surface of the substrate, and a metal oxide thin film transistor backpanel positioned in overlying relationship on the color filter and defining an array of pixels. An array of OLEDs is formed on the backpanel and positioned to emit light downwardly through the backpanel, the color filter, and the substrate in a full-color display. Light emitted by each OLED includes a first emission band with wavelengths extending across the range of two of the primary colors and a second emission band with wavelengths extending across the range of the remaining primary color. The color filter includes for each pixel, two zones separating the first emission band into two separate primary colors and a third zone passing the second emission band.

Abstract: Two-terminal electronic devices, such as photodetectors, photovoltaic devices and electroluminescent devices, are provided. The devices include a first electrode residing on a substrate, wherein the first electrode comprises a layer of metal; an I-layer comprising an inorganic insulating or broad band semiconducting material residing on top of the first electrode, and aligned with the first electrode, wherein the inorganic insulating or broad band semiconducting material is a compound of the metal of the first electrode; a semiconductor layer, preferably comprising a p-type semiconductor, residing over the I-layer; and a second electrode residing over the semiconductor layer, the electrode comprising a layer of a conductive material. The band gap of the material of the semiconductor layer, is preferably smaller than the band gap of the I-layer material. The band gap of the material of the I-layer is preferably greater than 2.5 eV.

Abstract: The back plate assembly contains a back plate and a reinforcing plate fixed to a back side of the back plate. The reinforcing plate has a hollowed out pattern with a number of connected reinforcing ribs. A backlight module and a display device incorporating the back plate assembly are also disclosed. The reinforcing plate is designed and manufactured separately and then fixed to the back plate. The reinforcing ribs and engraved openings are integrated on the reinforcing plate, achieving superior capability to withstand deformation and flexibility in customization to suit the need and appearance of various backlight modules and display devices.

Abstract: The present invention provides a liquid crystal display device and a method for manufacturing a light guide plate (LGP) positioning block thereof. The LGP positioning block (9) of the liquid crystal display device includes a positioning block body (91) and liquid (93) hermetically sealed in the positioning block body (91). The positioning block body (91) possesses elasticity. In a low temperature, the liquid (93) is condensed and expanded so as to enlarge the size of the positioning block body (91) to compensate the reduction of the size of a light guide plate (3) due to contraction caused by cooling; and in a high temperature, the elasticity of the positioning block body (91) absorbs the expansion of the size of the light guide plate (3) caused by heating.

Abstract: A method and an apparatus for measuring a speed of an object are provided, the method comprising: acquiring, for each image frame of at least two image frames in an image sequence, image information of the image frame, wherein the image information comprises depth information; detecting at least one object in the image frame based on the depth information to obtain an object detection result for the image frame; tracking the at least one detected object based on the object detection result of each of the at least two image frames to obtain an object tracking result; and calculating the speed of the at least one detected object based on the object tracking result and a time difference between the at least two image frames.

Abstract: The present disclosure provides a display panel, its driving method, and a display device. The display panel includes a first substrate and a second substrate arranged opposite to each other to form a cell, a liquid crystal layer arranged between the first substrate and the second substrate, and a pixel electrode arranged on the second substrate. A sensing electrode to which an external voltage is to be applied is arranged at a region of the first substrate corresponding to the liquid crystal layer. At a display stage, an electric field is generated between the sensing electrode to which the external voltage is applied and the pixel electrode to which a data voltage is applied, so as to drive liquid crystal molecules in the liquid crystal layer to deflect. The sensing electrode is a black matrix and/or color filter made of a conductive material and arranged on the first substrate.

Abstract: A method, device and system for regulating power consumption are provided in the embodiments of the present invention. A method for regulating power consumption includes: obtaining, by a base station, an application point and a configuration parameter; sending, by the base station, an indication message to a terminal according to the application point and configuration parameter; regulating, by the base station, the power consumption of the base station by using the configuration parameter at the application point; the configuration parameter comprises cell antenna information or system bandwidth information; the indication message instructs the terminal to use the configuration parameter at the application point. Under the condition that user's normal communication is remained, the number of cell antennas or the cell bandwidth is dynamically changed. This reduces the power consumption of the network device.

Abstract: The subject matter described here relates to the use of compounds and methods for the increase of progranulin expression. The methods may take place in vitro, ex vivo such as in isolates from adult mammalian tissue, or in vivo. Compounds and methods described herein may find use in the treatment of frontotemporal dementia.

Abstract: The liquid crystal panel packaging assembly contains a liquid crystal panel assembly and a support tray. The liquid crystal panel assembly contains a liquid crystal panel, a wiring board, and a circuit board. The wiring board has a first end electrically connected to the liquid crystal panel and a second end configured with a first connection element. The circuit board has a second connection element for connection with the first connection element so that the circuit board is electrically connected to the wiring board. The support tray contains a first indentation for receiving the liquid crystal panel, a second indentation for receiving the wiring board, and at least a socket. The second indentation is at a side and is connected to the first indentation. The socket is located at a lateral side of the second indentation, and the circuit board is plugged into the socket.