Abstract: A display device and a display panel thereof. The display panel has a display area and a frame area, where the display panel includes second pixel units disposed in the display area, and each of the second pixel units include: first sub-pixels, second sub-pixels and third sub-pixels alternately distributed in a column direction and emit three different primary colors respectively, and sub-pixels emitting a same color in each of the second pixel units are synchronously controlled to emit light. The display panel further includes color deviation adjustment sub-pixels disposed in the display area and between the second pixel units and the frame area, and the color deviation adjustment sub-pixels are independently controlled to emit light.

Abstract: A display panel includes a first display region and a second display region, and the second display region includes a transparent display region and a transition display region. Pixel circuits corresponding to light-emitting units of the transparent display region and the transition display region are located in the transition display region, and the pixel circuits located in the transition display region includes a first drive transistor. Along a direction perpendicular to the substrate, an overlapping region is located between the gate transmission structures and a lower electrode disposed on a side, close to the substrate, of a light-emitting unit of the transition display region located above the respective gate transmission structure, a shielding layer connected to a fixed potential is disposed in at least part of the overlapping region to shield from parasitic capacitance between the lower electrode and the gate transmission structure.

Abstract: An antibody that can specifically bind to semenogelin-1 (SEMG1) and semenogelin-2 (SEMG2) and regulate the binding of said proteins with a receptor (LILRB2, LILRB4, CD27, or TIGIT) thereof. It is proven that SEMG1 and SEMG2 have a regulating effect on immune cells, and it is proven that the antibody has a neutralizing effect. A specific linear epitope located on SEMG1 and SEMG2 proteins is provided, and it is proven that an antibody recognizing said epitope has a stronger neutralizing function, can more effectively remove an immunosuppressive effect mediated by SEMG1 and SEMG2, and promotes immune cells to inhibit and kill tumor cells. Further provided are preparation and identification methods for the antibody as well as a biomarker for the administration of such antibody. The present invention has good application prospects in the aspect of preparation of an anti-tumor drug.

Abstract: A display device, a display panel and a transparent display panel thereof. The transparent display panel includes a light-transmitting substrate, and a plurality of first sub-pixels. The first sub-pixels are located on the light-transmitting substrate. Each of the first sub-pixels includes a light-transmitting region and a non-light-transmitting region. Each of the first sub-pixels includes a first light-reflecting anode, a first light-emitting structure layer, and a first cathode stacked in the non-light-transmitting region. The light-transmitting region completely encloses the non-light-transmitting region, or the non-light-transmitting region completely encloses the light-transmitting region.

Abstract: Display substrates, display panels, and display devices. A display substrate includes a display area including a first display area, a second display area, and a third display area disposed between the two display areas, sub-pixels disposed in the above three display areas, pixel circuits corresponding to the sub-pixels one to one and signal lines. A light transmittance of first display area is greater than that of second display area, and that of third display area. Pixel circuits corresponding to sub-pixels in first display area are arranged in third display area. Pixel circuits corresponding to sub-pixels arranged along a first direction in display area are connected to a same one of the signal lines. At least one of the signal lines simultaneously connected with pixel circuits corresponding to sub-pixels in first display area, sub-pixels in second display area, and sub-pixels in third display area.

Abstract: The embodiments of the present application provide a pixel circuit, a display panel and a display apparatus. The pixel circuit includes: a driving module including a first control terminal for receiving a control signal and a second control terminal for receiving an adjustment signal, in which a voltage value of the adjustment signal is a first voltage value when the driving module operates in a first stage and is a second voltage value when the driving module operates in a second stage, and the first voltage value is different from the second voltage value. The embodiments of the present application can increase the driving current of the pixel circuit.

Abstract: A display panel and a display apparatus, the display panel including a first display area, a second display area, and a transition display area between the first display area and the second display area, the light transmittance of the second display area being greater than that of the first display area and the transition display area, the display panel including: first pixels in the first display area; seconds pixels in the second display area; third pixels in the transition display area; second pixel circuits in the transition display area and used for driving the second pixels to display; and third pixel circuits in the transition display area and used for driving the third pixels to display, a third pixel unit of the display panel including a third pixel circuit and two or more third pixels of the same colour electrically connected thereto.

Abstract: A terminal device includes a first application and at least one second application. The at least one second application accesses a service in the first application. The at least one second application sends an access request to the first application through cross-process communication. Because the access request includes an identifier uniquely corresponding to a target service interface of the service, the first application determines the target service interface based on the identifier, and executes a method object corresponding to the target service interface to generate an execution result.

Abstract: A display substrate includes a substrate, and the display substrate includes a first display region with a greatest light transmittance, a second display region, and a third display region on the substrate, the third display region is contiguous to the first and second display regions. A plurality of first sub-pixels are disposed in the first display region, a plurality of second sub-pixels are disposed in the second display region, a plurality of third sub-pixels are disposed in the third display region, and a density of the second sub-pixels is the greatest. A pixel circuit for the first sub-pixels is disposed in the third display region, a first electrode of the first sub-pixel is electrically connected to a corresponding pixel circuit via a wiring, the wiring includes a first segment of transparent conductive material disposed in the first display region and a second segment disposed in the third display region.

Abstract: Various embodiments provide for determining redundant logic in a circuit design based on one or more enable conditions of clock gates, which can be part of electronic design automation (EDA). In particular, some embodiments use one or more enable conditions (of the clock gates) with a satisfiability solver to determine redundant logic coupled to clock circuit elements gated by the clock gates.

Abstract: In an embodiment, a method for optimizing an integrated circuit physical design for an integrated circuit. A physical design graph includes a plurality of physical design sub-configurations, each including a placement of a group of physical cells and having annotated characteristics. The method includes identifying, in the integrated circuit physical design, a first physical design sub-configuration including a first placement of a first group of the physical cells and having first annotated characteristics, the first annotated characteristics being outside target characteristics. The method includes selecting from the physical design graph, based on the first group of the physical cells and the target characteristics, at least a second physical design sub-configuration including a second placement of the first group of the physical cells and being within the target characteristics.

Abstract: A transparent display panel and a display panel. The transparent display panel includes a transparent display area. The transparent display area includes a plurality of first pixel units. Each of the first pixel units includes a plurality of first sub-pixels. Each of the first sub-pixels includes: a first electrode being light-transmitting; a first light-emitting structural block located on the first electrode; and a second electrode located on the first light-emitting structural block. At least one pixel driving circuit for driving the first sub-pixels to emit light is arranged outside of the transparent display area. A separating area is arranged between an area where the at least one pixel driving circuit is arranged and the transparent display area.

Abstract: The cooling system includes an energy source, one or more heat exchangers for cooling a coolant, the one or more heat exchangers being connected to the energy source by a coolant circuit, one or more air channels inside which the one or more heat exchangers are placed, wherein the coolant circuit includes a bypass portion that recirculates the coolant to the energy source or circulates the coolant from the energy source to the one or more heat exchangers. The method includes decreasing the temperature of a portion of a coolant below an operating temperature, acting this portion of the coolant as a thermal buffer, and maintaining the rest of the coolant at the operation temperature. They allow enhancing the cooling capabilities of the system during the take-off phase, especially during the beginning of this phase.

Abstract: Various embodiments provide for determining clock gates for decloning based on simulation and a satisfiability solver, which can be part of electronic design automation (EDA). In particular, some embodiments use a simulation process to quickly determine whether enable signals associated with two clock gates are logically equivalent using a random input vector to a circuit design and, if logically equivalent by the simulation process, use a satisfiability solver to determine a variable assignment (e.g., at least one vector) such that the enable signals are found to be non-equivalent.

Abstract: A display panel includes a first display region and a second display region, and the second display region includes a transparent display region and a transition display region. Pixel circuits corresponding to light-emitting units of the transparent display region and the transition display region are located in the transition display region, and the pixel circuits located in the transition display region includes a first drive transistor. Along a direction perpendicular to the substrate, an overlapping region is located between the gate transmission structures and a lower electrode disposed on a side, close to the substrate, of a light-emitting unit of the transition display region located above the respective gate transmission structure, a shielding layer connected to a fixed potential is disposed in at least part of the overlapping region to shield from parasitic capacitance between the lower electrode and the gate transmission structure.

Abstract: A terminal device includes a first application and at least one second application. The at least one second application accesses a service in the first application. The at least one second application sends an access request to the first application through cross-process communication. Because the access request includes an identifier uniquely corresponding to a target service interface of the service, the first application determines the target service interface based on the identifier, and executes a method object corresponding to the target service interface to generate an execution result.

Abstract: Display substrates, display panels, and display devices. A display substrate includes a display area including a first display area, a second display area, and a third display area disposed between the two display areas, sub-pixels disposed in the above three display areas, pixel circuits corresponding to the sub-pixels one to one and signal lines. A light transmittance of first display area is greater than that of second display area, and that of third display area. Pixel circuits corresponding to sub-pixels in first display area are arranged in third display area. Pixel circuits corresponding to sub-pixels arranged along a first direction in display area are connected to a same one of the signal lines. At least one of the signal lines simultaneously connected with pixel circuits corresponding to sub-pixels in first display area, sub-pixels in second display area, and sub-pixels in third display area.

Abstract: A display device and a display panel thereof. The display panel has a display area and a frame area, where the display panel includes second pixel units disposed in the display area, and each of the second pixel units include: first sub-pixels, second sub-pixels and third sub-pixels alternately distributed in a column direction and emit three different primary colors respectively, and sub-pixels emitting a same color in each of the second pixel units are synchronously controlled to emit light. The display panel further includes color deviation adjustment sub-pixels disposed in the display area and between the second pixel units and the frame area, and the color deviation adjustment sub-pixels are independently controlled to emit light.

Abstract: A transparent display panel and a display panel. The transparent display panel includes a transparent display area. The transparent display area includes a plurality of first pixel units. Each of the first pixel units includes a plurality of first sub-pixels. Each of the first sub-pixels includes: a first electrode being light-transmitting; a first light-emitting structural block located on the first electrode; and a second electrode located on the first light-emitting structural block. At least one pixel driving circuit for driving the first sub-pixels to emit light is arranged outside of the transparent display area. A separating area is arranged between an area where the at least one pixel driving circuit is arranged and the transparent display area.

Abstract: A display panel and a display apparatus, the display panel including a first display area, a second display area, and a transition display area between the first display area and the second display area, the light transmittance of the second display area being greater than that of the first display area and the transition display area, the display panel including: first pixels in the first display area; seconds pixels in the second display area; third pixels in the transition display area; second pixel circuits in the transition display area and used for driving the second pixels to display; and third pixel circuits in the transition display area and used for driving the third pixels to display, a third pixel unit of the display panel including a third pixel circuit and two or more third pixels of the same colour electrically connected thereto.