Abstract: A pixel driving circuit, an organic light emitting display panel and a pixel driving method. The pixel driving circuit includes: a switching sub-circuit, a driving sub-circuit, a storage capacitor and a charge eliminating sub-circuit; the charge eliminating sub-circuit has a control terminal connected to a first scanning signal line, and other terminals connected to the first terminal of the driving sub-circuit, a cathode of the organic light emitting element (OLED) and a reference voltage terminal respectively, and can enable a potential between the anode and the cathode of the organic light emitting element to be reversed under control of the first scanning signal line.

Abstract: A pixel driving circuit, an organic light emitting display panel and a pixel driving method. The pixel driving circuit includes: a switching sub-circuit, a driving sub-circuit, a storage capacitor and a charge eliminating sub-circuit; the charge eliminating sub-circuit has a control terminal connected to a first scanning signal line, and other terminals connected to the first terminal of the driving sub-circuit, a cathode of the organic light emitting element (OLED) and a reference voltage terminal respectively, and can enable a potential between the anode and the cathode of the organic light emitting element to be reversed under control of the first scanning signal line.

Abstract: An embodiment of the present disclosure provides an array substrate, a display panel, and a display device, relating to the field of display technology. The array substrate includes a plurality of sub-pixel regions. The sub-pixel regions include at least one white sub-pixel region and a sub-pixel region adjacent to the white sub-pixel region. A signal line is disposed between the white sub-pixel region and the sub-pixel region adjacent thereto. At most a first data line is disposed between the white sub-pixel region and the adjacent sub-pixel region. The first data line is used to provide a data signal to a sub-pixel electrode in the white sub-pixel region. The signal line transmits a signal of a different type than the data signal.

Abstract: A touch display panel, a test method thereof and a display device are provided. The touch display panel includes: a base substrate, a plurality of touch electrodes in an array provided in a touch area of the base substrate, at least four test signal lines in a non-touch area of the base substrate, and a plurality of touch traces of connecting the touch electrodes and corresponding test signal lines. Each touch electrode and peripheral touch electrodes correspond to different test signal lines. The peripheral touch electrodes refer to other touch electrodes adjacent to one touch electrode and arranged along the row direction, the column direction and the diagonal direction.

Abstract: An embodiment of the present disclosure provides an array substrate, a display panel, and a display device, relating to the field of display technology. The array substrate includes a plurality of sub-pixel regions. The sub-pixel regions include at least one white sub-pixel region and a sub-pixel region adjacent to the white sub-pixel region. A signal line is disposed between the white sub-pixel region and the sub-pixel region adjacent thereto. At most a first data line is disposed between the white sub-pixel region and the adjacent sub-pixel region. The first data line is used to provide a data signal to a sub-pixel electrode in the white sub-pixel region. The signal line transmits a signal of a different type than the data signal.

Abstract: The present disclosure provides a display-panel motherboard and a fabricating method thereof. The display-panel motherboard includes a first motherboard and a second motherboard arranged opposite to each other, the display-panel motherboard is divided into a plurality of sub-panel regions arranged in an array, and a surrounding region other than all of the sub-panel regions, sealing glue for bonding the first motherboard to the second motherboard is applied within the surrounding region on a periphery of the display-panel motherboard, each sub-panel region is provided therein with sealant for bonding the first motherboard to the second motherboard, and first liquid crystals are provided within a closed space between the first motherboard and the second motherboard at an inner side of the sealing glue and at an outer side of the sealant within the individual sub-panel regions.

Abstract: A display substrate, a display panel, a substrate, a touch substrate and a cutting method of the substrate are disclosed. The display substrate includes a plurality of imagined touch electrodes, a plurality of connection wires, a grounding electrode and a first cutting alignment mark. The plurality of imagined touch electrodes are located at an imagined touch zone of the display substrate; the plurality of connection wires are located at a bonding zone of the display substrate and are connected with the imagined touch electrodes; the grounding electrode is arranged at the bonding zone and is electrically connected with the a plurality of connection wires; the first cutting alignment mark is arranged at a side of the grounding electrode adjacent to the connection wires, and configured that the grounding electrode being able to be cut away from the display substrate by cutting the display substrate through the first cutting alignment mark.

Abstract: An OLED display device and a method for detecting and repairing packaging effects of the same are disclosed in order to improve the production yield of OLED display devices, which relate to the field of display technologies. The OLED display device includes a substrate, an OLED element and a packaging structure, a packaging cavity being formed between the packaging structure and the substrate, the OLED element being located within the packaging cavity. The OLED display device further includes a detection unit, the detection unit being located within the packaging cavity and having a chemical activity for oxygen not lower than that of the OLED element.

Abstract: The present disclosure provides a pixel unit and a method for producing the same, an array substrate and a display apparatus. The pixel unit includes: a thin film transistor; an insulation layer formed at least on a drain electrode of the thin film transistor and formed therein with a via hole which extends through the insulation layer to expose the drain electrode of the thin film transistor below the insulation layer; a pixel electrode formed on the insulation layer and electrically connected to the drain electrode of the thin film transistor at the via hole; and at least one elevating layer formed below the via hole and located below a part of the drain electrode exposed from the via hole such that the exposed part has a height greater than the height of the parts of the drain electrode adjacent to the exposed part. The depth and slope of the via hole is reduced by adding the elevating layer below the via hole.

Abstract: A display substrate, a display panel, a substrate, a touch substrate and a cutting method of the substrate are disclosed. The display substrate includes a plurality of imagined touch electrodes, a plurality of connection wires, a grounding electrode and a first cutting alignment mark. The plurality of imagined touch electrodes are located at an imagined touch zone of the display substrate; the plurality of connection wires are located at a bonding zone of the display substrate and are connected with the imagined touch electrodes; the grounding electrode is arranged at the bonding zone and is electrically connected with the a plurality of connection wires; the first cutting alignment mark is arranged at a side of the grounding electrode adjacent to the connection wires, and configured that the grounding electrode being able to be cut away from the display substrate by cutting the display substrate through the first cutting alignment mark.

Abstract: An OLED display device and a method for detecting and repairing packaging effects of the same are disclosed in order to improve the production yield of OLED display devices, which relate to the field of display technologies. The OLED display device includes a substrate, an OLED element and a packaging structure, a packaging cavity being formed between the packaging structure and the substrate, the OLED element being located within the packaging cavity. The OLED display device further includes a detection unit, the detection unit being located within the packaging cavity and having a chemical activity for oxygen not lower than that of the OLED element.

Abstract: The present invention provides an array substrate, a driving method thereof, and a display device. The array substrate comprises a plurality of gate lines and a plurality of data lines, and the plurality of gate lines cross with the plurality of data lines to define a plurality of pixel units. Each of the pixel units comprises a first pixel electrode, a second pixel electrode and a floating electrode which are insulated from each other, and the floating electrode is provided in a layer different from that in which the first pixel electrode and the second pixel electrode are provided. The first pixel electrode and the second pixel electrode are capable of forming a plane electric field therebetween, and the floating electrode and both the first pixel electrode and the second pixel electrode are capable of forming a fringe electric field therebetween.

Abstract: The present disclosure provides a pixel unit and a method for producing the same, an array substrate and a display apparatus. The pixel unit includes: a thin film transistor; an insulation layer formed at least on a drain electrode of the thin film transistor and formed therein with a via hole which extends through the insulation layer to expose the drain electrode of the thin film transistor below the insulation layer; a pixel electrode formed on the insulation layer and electrically connected to the drain electrode of the thin film transistor at the via hole; and at least one elevating layer formed below the via hole and located below a part of the drain electrode exposed from the via hole such that the exposed part has a height greater than the height of the parts of the drain electrode adjacent to the exposed part. The depth and slope of the via hole is reduced by adding the elevating layer below the via hole.

Abstract: The present invention provides an array substrate, a driving method thereof, and a display device. The array substrate comprises a plurality of gate lines and a plurality of data lines, and the plurality of gate lines cross with the plurality of data lines to define a plurality of pixel units. Each of the pixel units comprises a first pixel electrode, a second pixel electrode and a floating electrode which are insulated from each other, and the floating electrode is provided in a layer different from that in which the first pixel electrode and the second pixel electrode are provided. The first pixel electrode and the second pixel electrode are capable of forming a plane electric field therebetween, and the floating electrode and both the first pixel electrode and the second pixel electrode are capable of forming a fringe electric field therebetween.

Abstract: Highly reactive functionalized substrates and linker molecules for use in the detection of molecular targets and other analytes of interest are provided as are kits, reaction mixtures and methods utilizing the same.

Abstract: Highly reactive functionalized substrates and linker molecules for use in the detection of molecular targets and other analytes of interest are provided as are kits, reaction mixtures and methods utilizing the same.

Abstract: A microfluidic separation device includes a microchannel formed in a substrate and being defined at least by a bottom surface, a first side wall, and second side wall. Fluid containing particles or cells is flowed through the microchannel from an upstream end to a downstream end. The downstream end terminates in a plurality of branch channels. A plurality of vertically-oriented electrodes are disposed on the first wall and on the second wall opposite to the first wall. A voltage source is connected to the plurality of opposing electrodes to drive the electrodes. The opposing, vertically-oriented electrodes may be used to focus a heterogeneous population of particles or cells for subsequent downstream separation via additional electrodes placed on one of the side walls. Alternatively, the opposing, vertically-oriented electrodes may be used to spatially separate a heterogeneous population of particles or cells for later collection in one or more of the branch channels.

Abstract: A microfluidic separation device includes a microchannel formed in a substrate and being defined at least by a bottom surface, a first side wall, and second side wall. Fluid containing particles or cells is flowed through the microchannel from an upstream end to a downstream end. The downstream end terminates in a plurality of branch channels. A plurality of vertically-oriented electrodes are disposed on the first wall and on the second wall opposite to the first wall. A voltage source is connected to the plurality of opposing electrodes to drive the electrodes. The opposing, vertically-oriented electrodes may be used to focus a heterogeneous population of particles or cells for subsequent downstream separation via additional electrodes placed on one of the side walls. Alternatively, the opposing, vertically-oriented electrodes may be used to spatially separate a heterogeneous population of particles or cells for later collection in one or more of the branch channels.

Abstract: A method for forming vertical electrodes in a microchannel includes providing a substrate having a cross-linked polymer layer thereon. A plurality of electrical contacts are then patterned on the cross-linked polymer. A photoresist is applied on the cross-linked polymer overtop the electrical contacts. Holes or vias are formed in the photoresist and a metallic material is deposited therein to form vertically-oriented electrodes. Optionally, the electrodes may be coated with a biocompatible metal such as platinum. The remaining photoresist on the cross-linked polymer is then removed. An epoxy-based photoresist such as SU-8 is applied over the substrate and portions of the photoresist are lithographically exposed and removed to form the microchannel. The vertical electrodes may be located on opposing sides of the microchannel. Finally, the microchannel is sealed a cap.