Abstract: An integrated circuit, a mobile phone and a display are provided with the integrated circuit. The integrated circuit includes a substrate, a data distributor and a data driver distributed on the substrate. A power line trace gap is provided within the data distributor; a first data line connected to the data driver and to the data distributor; and a first power line connected to the data driver and passing through the power line trace gap.

Abstract: The present disclosure relates to an array substrate including: an inorganic film layer having a surface provided with a number of first grooves; and metal wiring located in the first grooves. According to the array substrate described above, the surface of the inorganic film layer is provided with a number of first grooves, and the metal wiring is located in the first grooves, such that the inorganic film layer at the metal wiring is thinned, with reduced bending stress. On the other hand, the first grooves can release the bending stress of the array substrate partially during bending, thereby effectively preventing breakage of the inorganic film layer caused by bending, and thus effectively preventing breakage of the metal wiring, to improve reliability of the array substrate.

Abstract: A display panel and a display device are disclosed in the present disclosure. The display panel may include an active area and a non-active area located at a periphery of the active area. The active area may be provided with a plurality of signal lines. The non-active area may be provided with a plurality of conductive pads and a plurality of electrostatic discharge bodies. An end of each electrostatic discharge body may be connected to the active area via a corresponding signal line. The each electrostatic discharge body may be at least partially overlapped by and connected to a corresponding conductive pad.

Abstract: A display device and a method of manufacturing the same are disclosed. The display device includes a substrate (100), and a patterned polysilicon layer, a patterned gate insulating layer and a patterned first conductive layer stacked on the substrate in sequence. The patterned polysilicon layer includes a number of polysilicon blocks (110) doped with impurities. The patterned first conductive layer includes a number of data lines (120) each partially overlapping a corresponding polysilicon block to form a compensating capacitor.

Abstract: Provided is a display panel, which includes a first sub-display area, a second sub-display area, and a non-display area. A number of pixel units in the first sub-display area unit is less than a number of pixel units in the second sub-display area. The first sub-display area includes a first a scanning wire. A fixed potential signal wire of the non-display area includes a first signal wire and a second signal wire. The second signal wire is connected to the first signal wire. The second signal wire includes a connecting portion and strip portions connected to the connecting portion and arranged at intervals. A width of the second signal wire is greater than a width of the first signal wire.

Abstract: Disclosed are a driving substrate and a display panel. The driving substrate includes a substrate defining an irregular-shape non-display area, an anode layer, located on the irregular-shape non-display area and provided with a first curved groove for encapsulating, and an organic unit array formed on a surface of the anode layer away from the substrate. The organic unit array includes a number of organic units forming a number of unit rows and unit columns. The distances between every two adjacent organic units in each unit row or in each unit column are identical. The first curved groove is located between two organic units.

Abstract: An organic light emitting device having an overlapped area located at an edge of a non-display area. The organic light emitting device includes: a first electrode, a pixel definition layer, an isolation layer and a second electrode. The first electrode is arranged on a planarization layer of the overlapped area. The pixel definition layer is arranged on the first electrode, and further includes a number of pixel definition blocks. The isolation layer is arranged on the pixel definition layer, and further includes a number of supporting blocks arranged in a manner same to that of the number of pixel definition blocks of the pixel definition layer. The second electrode covers the first electrode, the pixel definition blocks, and the supporting blocks in the overlapped area. the second electrode overlaps the first electrode.

Abstract: Providing are a flexible display panel and flexible display device. The flexible display panel includes a display area and a non-display area surrounding the display area. The non-display area includes a flexible substrate, an inorganic layer and a metal wire stacked together. An overlapping area exists between the non-display area and a bending area of the flexible display panel. In the overlapping area, at least one groove is formed on the inorganic layer, and the metal wire is at least partially arranged in the at least one groove.

Abstract: An integrated circuit, a mobile phone and a display are provided with the integrated circuit. The integrated circuit includes a substrate, a data distributor and a data driver distributed on the substrate. A power line trace gap is provided within the data distributor; a first data line connected to the data driver and to the data distributor; and a first power line connected to the data driver and passing through the power line trace gap.

Abstract: The present disclosure relates to a display panel and a display device. The display panel, includes a display area, a non-display area located outside the display area, and a wire exchanging area provided between the display area and the non-display area, and the display panel including an array substrate including a flexible substrate, a first metal layer, an inorganic insulating layer, a second metal layer, and an organic flat layer provided in a laminated manner; a light-emitting element; and a packaging body configured for packaging the light-emitting element and including an inorganic layer directly contacting with the inorganic insulating layer in the wire exchanging area. The display panel of an embodiment of the present disclosure can effectively block water vapor and prevent water vapor from entering the display area of the display panel.

Abstract: Embodiments of the present application provide a emission control driving circuit, a emission control driver and an organic light emitting display device. The emission control driving circuit includes a first gate voltage control circuit, a second gate voltage control circuit and an isolation circuit.

Abstract: A circuit substrate and a display device are disclosed. The circuit substrate includes a display region and a non-display region. The non-display region includes: a first electrode layer, and a second electrode layer located on the first electrode layer. A contact area of the first electrode layer contacting with the second electrode layer at one side of the display region is equal to that of the first electrode layer contacting with the second electrode layer at another side of the display region, so that the first electrode layer and the second electrode layer have a same contact resistance, and therefore the currents flowing through both sides of the display region are the same, and the phenomenon of electrically shorted corner can be avoided.

Abstract: A driving circuit board (10), a method for manufacturing the same, and a display device (30) are disclosed. The driving circuit board includes a substrate (100), a test circuit (200) and two connecting units (210) disposed on the substrate. The two connecting units are disposed on both sides of the test circuit respectively. The driving circuit board further includes a protective layer (300) disposed over the upper surface of the test circuit and covering the test circuit. By providing the protective layer, the purpose of preventing the test circuit line from being corroded or damaged can be achieved.

Abstract: A pixel circuit, a pixel, and an AMOLED (Active Matrix Organic Light-Emitting Diode) display device comprising the pixel and a driving method thereof. The pixel circuit comprises a power supply circuit, a basic circuit and a compensation circuit, which are sequentially connected. The power supply circuit is connected to a first power supply to supply power to the basis circuit. The compensation circuit is connected to second and third power supplies, respectively, for providing difference values compensating for a voltage and current of an OLED (Organic Light-Emitting Diode). The pixel comprises an OLED and the pixel circuit. The AMOLED display device comprises the pixel circuit. By compensating for a difference between threshold and power supply voltages of a transistor, the response characteristics of the AMOLED may be improved to generate light of a same brightness, thereby meeting requirements on image uniformity and consistency of an AMOLED.

Abstract: The present application provides an array substrate and a display device. The array substrate includes a substrate provided with a display region and a non-display region. The display region is configured to display. The non-display region includes a groove region. The groove region has a light transmittance greater than that of the display region. The display device includes the above-described array substrate.

Abstract: A pixel circuit, a pixel, and an AMOLED (Active Matrix Organic Light-Emitting Diode) display device comprising the pixel and a driving method thereof. The pixel circuit comprises a power supply circuit, a basic circuit and a compensation circuit, which are sequentially connected. The power supply circuit is connected to a first power supply to supply power to the basis circuit. The compensation circuit is connected to second and third power supplies, respectively, for providing difference values compensating for a voltage and current of an OLED (Organic Light-Emitting Diode). The pixel comprises an OLED and the pixel circuit. The AMOLED display device comprises the pixel circuit. By compensating for a difference between threshold and power supply voltages of a transistor, the response characteristics of the AMOLED may be improved to generate light of a same brightness, thereby meeting requirements on image uniformity and consistency of an AMOLED.

Abstract: A display screen having an irregular shape and a display device are provided. The display screen has a contour line defining an active display area. The display screen includes a plurality of repeatedly arranged first light emitting units and a plurality of repeatedly arranged second light emitting units. The number of sub-pixels in the first light emitting units is greater than or equal to the number of sub-pixels in the second light emitting units. The first light emitting units and the second light emitting units with different structures are combined and filled with the contour line of the display screen to define the active display area, and the contour line is fit by different shapes of the first light emitting units and the second light emitting units.

Abstract: The present disclosure relates to a mask assembly adapted for being applied in an evaporation process of preparing a display screen. The mask assembly includes a mask provided with a plurality of opening areas, an evaporation material is deposited through the plurality of opening areas; and a plurality of opening area shielding members disposed at edges of the plurality of opening areas and configured to shield a portion of the evaporation material, so as to form a display chamfer on the display screen in the evaporation process.

Abstract: The present disclosure relates to an array substrate and a display screen. The array substrate includes a first gate drive unit located in the non-display area and corresponding to pixels in the special-shaped display region, and a second gate driving unit located in the non-display area and corresponding to pixels in the non-special-shaped display region. A width-length ratio of a first output transistor of the first gate driving unit is smaller than a width-length ratio of a second output transistor of the second gate driving unit.

Abstract: A flexible display panel and a flexible display device are provided according to exemplary embodiments of the present application. The flexible display panel includes a plurality of pixel units. Two adjacent pixel units are electrically connected by a connection line structure, and the connection line structure includes a first trace layer adopting a flexible conductive material; and a second trace layer located in a different layer from the first trace layer. The first trace layer is electrically connected to the second trace layer.