Abstract: A light-emitting diode includes a semiconductor light-emitting stack and a distributed Bragg reflector (DBR) structure. The semiconductor light-emitting stack has a first surface and a second surface opposite to each other. The DBR structure is disposed on one of the first surface and the second surface of the semiconductor light-emitting stack, and includes at least one set of light-transmitting layers including at least two of the light-transmitting layers which have different refractive indices and roughened interface.

Abstract: A light-emitting diode includes a semiconductor light-emitting stack and a distributed Bragg reflector (DBR) structure. The semiconductor light-emitting stack has a first surface and a second surface opposite to each other. The DBR structure is disposed on one of the first surface and the second surface of the semiconductor light-emitting stack, and includes at least one set of first light-transmitting layers and at least one set of second light-transmitting layers stacked on each other in the first direction. The first light-transmitting layers has interface roughness greater than that of the second light-transmitting layers.

Abstract: An electronic device and a method of manufacturing an electronic device are provided. The electronic device includes an electronic component, a carrier, and a lead. The electronic component has a lateral surface. The carrier supports the electronic component. The lead is electrically connected to the electronic component and disposed adjacent to the lateral surface of the electronic component. The carrier and the lead are configured to block an electromagnetic wave between the electronic component and an external of the electronic device.

Abstract: A composite reflective structure includes at least one dielectric multilayer element which includes a first dielectric layer having a first refractive index, a second dielectric layer having a second refractive index, and a stress buffer layer interposed therebetween. The first refractive index is greater than the second refractive index. Also disclosed herein is a light-emitting diode chip including the abovementioned composite reflective structure and a light-emitting diode device including the light-emitting diode chip.

Abstract: An image processing method, an electronic device, and a non-transitory computer readable storage medium are provided. The method includes: dividing a to-be-processed image into blocks to obtain a plurality of image blocks. Each image block includes an effective image area and an extended area. The method further includes processing image data of each image block by using a target network model to obtain each target image block. The method also includes extracting target effective image areas in each target image block separately. The method additionally includes combining the target effective image areas to generate a target image.

Abstract: A pump front chamber automatic compensation device for improving closed impeller backflow is provided. The automatic compensation device is mounted on the inner wall surface of the pump body front chamber, extending from the inner wall surface of the pump body front chamber to the impeller front cover plate, stopping the flow of fluid from the impeller outlet to the pump front chamber. The automatic compensation device includes a spacer plate and a compensation feedback device. One end of the spacer plate extends into the pump front chamber, and the other end is connected to the automatic compensation assembly, through which the length of the spacer extension is automatically compensated. The pump front chamber automatic compensation device can prevent the fluid flowing out of the impeller outlet from entering the front chamber of the centrifugal pump, thus improving the operating efficiency and stability of the centrifugal pump.

Abstract: A light-emitting device includes a substrate, a semiconductor structure, and an insulating reflective layer. The substrate has an upper surface and a lower surface. The semiconductor structure is disposed on the upper surface of the substrate. A projection of the semiconductor structure on the upper surface of the substrate has an outer periphery spaced apart a distance from an outer periphery of the upper surface of the substrate. The insulating reflective layer covers at least a part of the semiconductor structure and has an extending portion extending outwardly from the semiconductor structure and covering a part of the upper surface of the substrate. A peripheral end of the extending portion of the insulating reflective layer has an inclined lateral surface, and an included angle defined between the inclined lateral surface and the upper surface of the substrate is not less than 60°.

Abstract: A pump front chamber automatic compensation device for improving closed impeller backflow is provided. The automatic compensation device is mounted on the inner wall surface of the pump body front chamber, extending from the inner wall surface of the pump body front chamber to the impeller front cover plate, stopping the flow of fluid from the impeller outlet to the pump front chamber. The automatic compensation device includes a spacer plate and a compensation feedback device. One end of the spacer plate extends into the pump front chamber, and the other end is connected to the automatic compensation assembly, through which the length of the spacer extension is automatically compensated. The pump front chamber automatic compensation device can prevent the fluid flowing out of the impeller outlet from entering the front chamber of the centrifugal pump, thus improving the operating efficiency and stability of the centrifugal pump.

Abstract: A lead frame includes a die paddle, a plurality of leads, at least one connector and a bonding layer. The leads surround the die paddle. Each of the leads includes an inner lead portion adjacent to and spaced apart from the die paddle and an outer lead portion opposite to the inner lead portion. The connector is connected to the die paddle and the inner lead portions of the leads. The bonding layer is disposed on a lower surface of the die paddle and a lower surface of each of the outer lead portions.

Abstract: A light-emitting diode includes a semiconductor light-emitting stack and a distributed Bragg reflector (DBR) structure. The semiconductor light-emitting stack has a first surface and a second surface opposite to each other. The DBR structure is disposed on one of the first surface and the second surface of the semiconductor light-emitting stack, and includes at least one set of first light-transmitting layers and at least one set of second light-transmitting layers stacked on each other in the first direction. The first light-transmitting layers has interface roughness greater than that of the second light-transmitting layers.

Abstract: A composite reflective structure includes at least one dielectric multilayer element which includes a first dielectric layer having a first refractive index, a second dielectric layer having a second refractive index, and a stress buffer layer interposed therebetween. The first refractive index is greater than the second refractive index. Also disclosed herein is a light-emitting diode chip including the abovementioned composite reflective structure and a light-emitting diode device including the light-emitting diode chip.

Abstract: A device includes a die paddle and a plurality of leads. The leads surround the die paddle. Each of the leads includes an inner lead portion adjacent to and spaced apart from the die paddle, an outer lead portion opposite to the inner lead portion and a bridge portion between the inner lead portion and the outer lead portion. The inner lead portion has an upper bond section connected to the bridge portion and a lower support section below the upper bond section. A sum of a thickness of the upper bond section and a thickness of the lower support section is greater than a thickness of the bridge portion.

Abstract: A lead frame includes a die paddle, a plurality of leads, at least one connector and a bonding layer. The leads surround the die paddle. Each of the leads includes an inner lead portion adjacent to and spaced apart from the die paddle and an outer lead portion opposite to the inner lead portion. The connector is connected to the die paddle and the inner lead portions of the leads. The bonding layer is disposed on a lower surface of the die paddle and a lower surface of each of the outer lead portions.

Abstract: The present disclosure provides a manufacturing method for an LED display screen. The method includes preparing a batch of LED chips of the same or different specification; picking up the LED chips illogically according to a random sampling method, and arranging the picked led chips in sequence; and packaging and assembling the LED chips arranged in sequence to form the LED display screen. The LED display screen includes an area which includes a plurality of LED chips, and at least two adjacent LED chips of the plurality of LED chips are of different specifications, the specification of the LED chip comprising a specification of at least one of color and brightness.

Abstract: A device includes a die paddle and a plurality of leads. The leads surround the die paddle. Each of the leads includes an inner lead portion adjacent to and spaced apart from the die paddle, an outer lead portion opposite to the inner lead portion and a bridge portion between the inner lead portion and the outer lead portion. The inner lead portion has an upper bond section connected to the bridge portion and a lower support section below the upper bond section. A sum of a thickness of the upper bond section and a thickness of the lower support section is greater than a thickness of the bridge portion.

Abstract: The present invention provides a genetically-modified non-human animal whose somatic and germ cells contain a gene encoding an altered form of an DHX36 gene, the altered DHX36 haviang been targeted to replace a wild-type DHX36 gene into the animal or an ancestor of the animal at an embyonic stage using embryonic stem cells. An ideal use of the genetically-modified non-human animal of the invention is the use as an experimental model for muscular dystrophy, e.g. spinal muscular atrophy, to identify e.g. new treatments for muscular dystrophy and or study its pathogenesis.