Abstract: An OLED display device includes an assisting conductive layer formed on a bottom surface of an upper substrate in such a way that the assisting conductive layer is in direct contact with and electrically connected to a second electrode that is located on a top surface of a lower substrate so that electrical conduction capability of the second electrode is enhanced and the electrical resistance of the second electrode is reduced to thereby make in-plane voltage homogenous, improve consistency of displaying, and alleviate the issues of non-uniform panel brightness and mura and also help reduce the thickness of the second electrode for saving material of the second electrode and increase light transparency of the second electrode.

Abstract: A pixel structure, a manufacturing method and a display panel are provided. The pixel structure comprises a thin-film transistor array pattern unit and a pixel pattern unit which are disposed stacked; the pixel pattern unit includes a concave-convex structure film layer disposed on the thin-film transistor array pattern unit, a protection layer covered on the concave-convex structure film layer, a pixel electrode layer located on the protection layer, and electrically connected to the thin-film transistor array pattern unit and an emitting definition region so as to increase a light extraction rate of the light emitting device, decrease the power consumption of the display device and extend the life.

Abstract: An appliance, communication system, and method thereof for a communicating on a network including an appliance interactive display coupled to an appliance communication module, wherein the appliance communication module is configured to receive a message including an embedded interactive element, and sending a return message that relates to the activation of the embedded interactive element.

Abstract: The present invention provides an OLED display device, which includes an assisting conductive layer formed on a bottom surface of an upper substrate in such a way that the assisting conductive layer is in direct contact with and electrically connected to a second electrode that is located on a top surface of a lower substrate so that electrical conduction capability of the second electrode is enhanced and the electrical resistance of the second electrode is reduced to thereby make in-plane voltage homogenous, improve consistency of displaying, and alleviate the issues of non-uniform panel brightness and mura and also help reduce the thickness of the second electrode for saving material of the second electrode and increase light transparency of the second electrode.

Abstract: The present invention provides a method for manufacturing flexible display substrate, comprising: providing a carrier substrate and depositing a layer of soluble polymer on the carrier substrate; fabricating a flexible substrate on the soluble polymer; fabricating a display component on the other surface of the flexible substrate opposite to the soluble polymer and performing a package process; and, peeling off the flexible substrate from the carrier substrate by dissolving the soluble polymer to obtain the flexible display substrate. The method for manufacturing flexible display substrate of the present invention simplifies the manufacture process and avoids damage to the flexible substrate during the peeling process.

Abstract: A method of fabricating a thin film transistor structure is described. An oxide semiconductor layer is fabricated by a self-aligned method and a lift-off process, and a source electrode and a drain electrode are fabricated by another lift-off process, so as to solve a problem in the conventional technology, wherein a semiconductor channel is damaged when an etching is performed, and a problem of raising a process cost due to the increasing complexity of the process.

Abstract: A method and appliance for a communicating on a network includes an appliance interactive display coupled to an appliance communication module, wherein the appliance communication module is configured to receive a message, and in response to the received message, the appliance is configured to send a return message that relates to the message.

Abstract: A method of fabricating a thin film transistor structure is described. The method forms a photoresist pattern layer on an active pattern layer and a part of a gate insulating layer to expose a source predetermining position and a drain predetermining position of the gate insulating layer. The photoresist pattern layer has a plurality of inverted trapezoidal blocks which can be used as a mask, thereby depositing a metal layer on the photoresist pattern layer, the source predetermining position and the drain predetermining position. After removing the photoresist pattern layer and the metal layer thereon, the remaining metal layer is patterned to form a source and a drain. In the method of fabricating a thin film transistor structure, a fabricating process can be simplified, and it is unnecessary to form an etching stop layer to protect a back channel.

Abstract: A method of fabricating a thin film transistor structure is described. An oxide semiconductor layer is fabricated by a self-aligned method and a lift-off process, and a source electrode and a drain electrode are fabricated by another lift-off process, so as to solve a problem in the conventional technology, wherein a semiconductor channel is damaged when an etching is performed, and a problem of raising a process cost due to the increasing complexity of the process.

Abstract: Computer efficiency improved sketch-effect hatching is provided. A hatching tool generates a bounding area associated with an object, within which a plurality of hatching line segment strokes is generated. The strokes are generated by generating center points on equally or near-equally spaced parallel columns within the bounding area that are vertically-offset from each other by randomly-generated stroke lengths. The center points are then randomly horizontally-offset from the columns according to a calculated deviation. A random angle deviation is derived, and end points of the strokes are calculated based on the new center points, stroke lengths, and angle deviations. The strokes are then enhanced by generating overstrokes. Further, the hatching tool maps the strokes to the object, rotates the strokes by a hatching angle, keystone-corrects the strokes, and clips the strokes to fit within the object's boundary. The strokes are output to provide a hand-sketched hatching effect.

Abstract: The present invention provides a flexible OLED and a manufacture method thereof. The flexible OLED is capable of decreasing the resistance of the second electrode (12) and increasing the conducting ability to even the voltages of respective pixels, to improve the display homogeneity, and meanwhile, capable of reducing the thickness of the second electrode (12) and saving the material of the second electrode (12) by covering the auxiliary conducting layer (13) on the second electrode (12). The manufacture method of the flexible OLED is capable of decreasing the resistance of the second electrode (12) and increasing the conducting ability to even the voltages of respective pixels, to improve the display homogeneity, and meanwhile, capable of reducing the thickness of the second electrode (12) and saving the material of the second electrode (12) by forming the auxiliary conducting layer (13) on the second electrode (12) to cover the second electrode (12).

Abstract: A method and appliance for a communicating on a network includes an appliance interactive display coupled to an appliance communication module, wherein the appliance communication module is configured to receive a message, and in response to the received message, the appliance is configured to send a return message that relates to the message.

Abstract: A home network comprises at least one appliance having an appliance interactive display and an appliance communication module, a server having a server communication module, and a mobile device having a mobile interactive display and a mobile communication module. The mobile device or server is configured to send a message having an embedded interactive element to the at least on appliance when the server communication module or the mobile communication module is in communication with the appliance communication module.

Abstract: A home network can comprise at least one appliance with an appliance interactive display and at least one mobile device with a mobile interactive display. An application on the mobile device or the appliance can be configured to enable a user to create a user interface on the appliance or mobile device interactive displays. The user interface can be cast to the other of the mobile device or the appliance on which it was created and can be interacted with independent of where the user interface was created.

Abstract: A universal substrate for assembling ball grid array (BGA) type integrated circuit packages has a non-conducting matrix, an array of conducting vias extending between top and bottom surfaces of the matrix, and one or more instances of each of two or more different types of fiducial pairs on the top surface of the matrix. Each instance of each different fiducial pair indicates a location of a different via sub-array of the substrate for a different BGA package of a particular package size. The same substrate can be used to assemble BGA packages of different size, thereby avoiding having to design a different substrate for each different BGA package size.