Abstract: A transparent display device includes a driving backplane, a light-emitting element, a first planarization layer, a first light-shielding layer, a second planarization layer and a second light-shielding layer. The light-emitting element is disposed on the driving backplane. The first planarization layer covers the light-emitting element. The first light-shielding layer is disposed on the first planarization layer and has a first opening. The first opening at least partially overlaps the light-emitting element. The second planarization layer covers the first light-shielding layer. The second light-shielding layer is disposed on the second planarization layer and has a second opening. The second opening at least partially overlaps the first opening.

Abstract: A double-sided display device includes a transparent self-luminous display panel, a switching panel and a projection device. The transparent self-luminous display panel has a light-emitting side and a backside opposite to the light-emitting side. The switching panel is disposed on the backside of the transparent self-luminous display panel. The switching panel includes a first electrode, a second electrode and a liquid crystal layer disposed between the first electrode and the second electrode. The first electrode and the second electrode are configured to control liquid crystal molecules in the liquid crystal layer so that the switching panel includes a scattering state and a transparent state. The projection device is configured to project toward the light-emitting side of the transparent self-luminous display panel.

Abstract: A display device includes a first pixel and a second pixel. The first pixel includes first light-emitting diodes. Each first light-emitting diode includes a first bottom semiconductor layer and a first top semiconductor layer stacked along a vertical direction. The second pixel includes second light-emitting diodes. Each second light-emitting diode includes a second bottom semiconductor layer and a second top semiconductor layer stacked along the vertical direction. In one of the first light-emitting diodes of the first pixel, a first mesa region is located in a first direction of a first overlap region, and in another of the first light-emitting diodes of the first pixel, the first mesa region is located in a second direction opposite to the first direction of the first overlap region. In each second light-emitting diode of the second pixel, a second mesa region is located in the second direction of a second overlap region.

Abstract: An electronic device includes: a body, including opposite outer and inner surfaces, and a through opening passing through the outer and inner surfaces; a fan, disposed on the outer surface and having an air outlet; a heat sink assembly, disposed at the air outlet and corresponding to the through opening; a first thermal tube, having one end assembled on the heat sink assembly and located on the side of the outer surface; a first heat source, disposed corresponding to the other end of the first thermal tube; a thermal plate, disposed in the body and corresponding to the through opening, having one side abutting against the heat sink assembly and the inner surface; a second thermal tube, having one end connected to the other side of the thermal plate; and a second heat source, disposed corresponding to the other end of the second thermal tube.

Abstract: A waterproof gate assembly, which is configured to be mounted to a housing and includes a cover, an installation axle and a fixing member, is provided. The installation axle is connected to the cover, allowing the cover to rotate relative to the installation axle. The installation axle includes an axial groove, an engaging structure and a fixing structure. The axial groove is connected to the cover and includes a first end portion and a second end portion. The engaging structure is connected to one side of the axial groove corresponding to the cover, extends to the first end portion of the axial groove, and is configured to be engaged at the housing. The fixing structure is connected to one side of the axial groove corresponding to the cover, and close to the second end portion. The fixing member passes through the fixing structure and is fixed at the housing.

Abstract: A display panel, including a circuit substrate, a light emitting diode, and a reflective layer, is provided. The light emitting diode includes a light emitting layer and first and second semiconductor layers. The light emitting layer is located between the first and second semiconductor layers. The second semiconductor layer is located between the first semiconductor layer and the circuit substrate. The reflective layer is in contact with a part of a side surface of the light emitting diode. A part of the reflective layer is located between the light emitting diode and the circuit substrate. Taking a direction perpendicular to a top surface of the circuit substrate as a height direction, a horizontal height of a top surface of the reflective layer is located between a horizontal height of a top surface of the light emitting layer and a horizontal height of a top surface of the light emitting diode.

Abstract: A computer with a function expansion mechanism includes a computer host and a function expansion device. The computer host includes a base and a functional base cover covering the base. A bottom surface of the base has a first opening, and the base is provided therein with a connector exposed from the first opening. The function expansion device includes an expansion seat, a top surface of the expansion seat has a second opening, and the expansion seat is provided therein with a docking connector exposed from the second opening. The computer host is stacked and assembled by the bottom surface at the top surface of the function expansion device, such that the first opening and the second opening are in communication with each other and the connector and the docking connector are mutually docked, thereby achieving an effect of function expansion without removal of a computer.

Abstract: An electronic device includes a first substrate, a second substrate disposed opposite to the first substrate, and an electrochromic layer disposed between the first base and the second base. The first substrate includes a first base, a trace, a dielectric layer and an electrode. The dielectric layer is disposed on the first base and covers the trace. The electrode is disposed on the dielectric layer, and is electrically connected to the trace through a contact window of the dielectric layer. The trace includes a first mesh conductive pattern. The first mesh conductive pattern of the trace partially overlaps with the electrode.

Abstract: An electronic device includes a first base, a plurality of electrodes, a plurality of traces, an insulating layer, a second base and an electrochromic layer. The electrodes are disposed on the first base. Each electrode includes a mesh conductive pattern and a transparent conductive pattern. The mesh conductive pattern has a plurality of mesh lines and a plurality of meshes defined by the mesh lines. The transparent conductive pattern covers the mesh lines and the meshes, and is electrically connected to the mesh conductive pattern. The traces are disposed on the first base, and are electrically connected to the electrodes respectively. The insulating layer is disposed on the first base, and at least covers the traces. The second base is disposed opposite to the first base.

Abstract: Polypeptides and compositions having the polypeptides. Methods for treating cancer utilizing polypeptides and compositions having the polypeptides. The polypeptides can bind to human PD-L1 protein. The polypeptides can block the PD-1/PD-L1 interaction.

Abstract: Disclosed herein is a system for implementing medical data exchange and medical claim settlement via Fast Healthcare Interoperability Resources (FHIR) standard data. The system includes a data exchange module, a blockchain database, a service-provider server, and an authority management module, all of which are communicatively connected to each other. The system receives and converts raw medical data into FHIR standard data for transmission to insurance institutions, and encrypts the FHIR standard data, and facilitates medical claims settlement. Also disclosed herein is a method for implementing medical data exchange and claims settlement based on FHIR standards.

Abstract: The present application belongs to the field of lithium battery technology, particularly relating to a preparation method for lithium iron phosphate cathode material and lithium battery. The method comprises: adding lithium source, iron source, phosphorus source, first carbon source, dopant, and dispersant into a solvent according to a preset ratio for mixing and grinding treatment to obtain the first mixture; Drying the first mixture and performing the first sintering in an inert gas atmosphere to obtain the lithium iron phosphate precursor; Adding borohydride, deionized water, second carbon source, and dispersant to the lithium iron phosphate precursor for pretreatment to obtain the lithium iron phosphate precursor mixture; After mixing, grinding, and drying the lithium iron phosphate precursor mixture, performing a second sintering in an inert gas atmosphere to obtain a coated doped type lithium iron phosphate cathode material.

Abstract: The present invention provides a control method of a flash memory controller, wherein the flash memory controller is configured to access a flash memory module, the flash memory module comprises a plurality of blocks, and the control method comprising: receiving a settling command from a host device; in response to the settling command, configuring at least one portion of the flash memory module as a zoned namespace, wherein the zoned namespace logically comprises a plurality of zones; generating parameter information according to a configuration of the zoned namespace; and transmitting the parameter information to the host device, for the host device uses the parameter information to set the zone.

Abstract: The present application belongs to the field of lithium battery technology, particularly relating to a preparation method for ultra-high compacted lithium iron phosphate cathode material and lithium battery. The method comprises: obtaining an iron-containing precursor based on iron phosphate and dispersant; Mixing the iron-containing precursor, lithium source, phosphorus source, and first carbon source for first sintering to obtain the first precursor mixture and grinding to the first preset particle size to obtain the first precursor; Mixing the iron-containing precursor, lithium source, phosphorus source, and second carbon source for second sintering to obtain the second precursor mixture and grinding to the second preset particle size to obtain the second precursor; Mixing the first precursor, second precursor, and third carbon source and performing a third sintering to obtain the lithium iron phosphate cathode material, improving the coating integrity of the first carbon coating.

Abstract: A transparent display device includes a transparent display panel and a functional film. The transparent display panel includes a transparent substrate and a pixel array. The functional film is disposed on the transparent display panel. The pixel array is located between the functional film and the transparent substrate. A surface of the functional film facing away from the transparent substrate has raised microstructures. At least a portion of each of the raised microstructures extends in a first oblique direction. A size of the least a portion of each of the raised microstructures is gradually decreased along the first oblique direction. The first oblique direction forms an acute angle ? with a normal direction of the transparent substrate.

Abstract: A backlight module includes a light guide plate, a light source, and an optical film. The light guide plate has a light incident surface and a light exiting surface opposite to the light incident surface, in which the light exiting surface has a normal line. The light source is adjacent to the light incident surface. The optical film is disposed to the light exiting surface and includes plural parallel prisms and plural microstructures. An extending direction of each of the prisms is perpendicular to the normal line, and each of the prisms faces the light exiting surface of the light guide plate. Each of the microstructures is located on a surface of the optical film which faces away from the light guide plate. Each of the microstructures has a pyramid structure with plural facets. The prisms are located between the microstructures and the light exiting surface.

Abstract: An optotype calibration method is disclosed. The optotype calibration method includes steps of: (a) when a first optotype and a second optotype located outside an observable area, moving the observable area from an original position until the first optotype or the second optotype appears in the observable area; (b) adjusting a focus mechanism to make the first optotype and the second optotype close to each other; (c) moving the observable area back to the original position; and (d) repeating the steps (a)˜(c) until the first optotype and the second optotype align with each other.

Abstract: A pixel array substrate including a substrate and multiple pixel units is provided. The pixel units are disposed on the substrate, and each include at least one active device, a pixel electrode and at least one storage capacitor. The pixel electrode is electrically connected to the at least one active device, and has multiple openings. The at least one storage capacitor is electrically connected to the pixel electrode and the at least one active device. The at least on storage capacitor completely overlaps a part of the openings of the pixel electrode. An electrowetting display panel adopting the pixel array substrate is also provided.

Abstract: A transparent display apparatus includes a transparent substrate, a first pixel array and a light leakage suppression element. The transparent substrate has display areas and transparent areas. The first pixel array is disposed on the transparent substrate and includes first pixels and first openings. Each of the first pixel overlaps with a corresponding display area. Each of the first opening overlaps with a corresponding transparent area. The light leakage suppression element includes light blocking structures spaced apart from each other. The first pixels are disposed on a first side of the transparent substrate. At least a portion of each of the light blocking structures of the light leakage suppression element is disposed on a second side of the transparent substrate.

Abstract: A method for preparing (2S,3R)-p-methylsulfonylphenylserine is provided. In order to solve the existing problem of low conversion rate, provided is a method for preparing (2S,3R)-p-methylsulfonylphenylserine, including carrying out a reaction between p-methylsulfonylbenzaldehyde, L-threonine and pyridoxal phosphate in an oxygen-containing environment under the combined action of transaldolase and acetaldehyde oxidase to obtain a product (2S,3R)-p-methylsulfonylphenylserine. The method can effectively achieve the effect of improving the conversion rate of the reaction and has the advantage of high product yield.