Abstract: A microneedle is provided in some embodiments of the present disclosure, including a supporting portion, a needle tip portion and an adhesion layer. The needle tip portion is disposed above the supporting portion, including an active substance. The adhesion layer is disposed between the supporting portion and the needle tip portion, including an adhesive material and a viscosity-reducing substance distributed in the adhesive material. A microneedle patch and a method are further provided in some embodiments of the present disclosure.

Abstract: A device and method for fabricating a photovoltaic device includes forming a double layer transparent conductive oxide on a transparent substrate. The double layer transparent conductive oxide includes forming a doped electrode layer on the substrate, and forming a buffer layer on the doped electrode layer. The buffer layer includes an undoped or p-type doped intrinsic form of a same material as the doped electrode layer. A light-absorbing semiconductor structure includes a p-type semiconductor layer on the buffer layer, an intrinsic layer and an n-type semiconductor layer.

Abstract: A rotor is provided. The rotor includes a main body, a plurality of magnets and a plurality of magnet-receiving slots. The plurality of magnet-receiving slots are disposed on the main body and disposed around a central axis. Each two adjacent magnet-receiving slots are symmetrical to each other. Each magnet-receiving slot includes a slot body and a first flux barrier connected with each other. Each magnet is contained in the corresponding slot body. Each first flux barriers includes a respective arc-cutting start point. A minimum arc-cutting distance is formed between the two respective arc-cutting start points. Each of the two respective arc-cutting start points is extended toward the central axis along an arc with a first arc length radius to define a first arc-cutting end point. The first arc length radius is greater than or equal to 0.2 times of the minimum arc-cutting distance.

Abstract: A rotor is provided. The rotor includes a main body, a plurality of magnets and a plurality of magnet-receiving slots. The plurality of magnet-receiving slots are disposed on the main body and disposed around a central axis. Each two adjacent magnet-receiving slots are symmetrical to each other. Each magnet-receiving slot includes a slot body and a first flux barrier connected with each other. Each magnet is contained in the corresponding slot body. Each first flux barriers includes a respective arc-cutting start point. A minimum arc-cutting distance is formed between the two respective arc-cutting start points. Each of the two respective arc-cutting start points is extended toward the central axis along an arc with a first arc length radius to define a first arc-cutting end point. The first arc length radius is greater than or equal to 0.2 times of the minimum arc-cutting distance.

Abstract: The utility model relates to a crimping structure of a surface coating fabric of an article, which is mainly applied to a soft package of soft furniture and wall decoration. The crimping structure includes a coating fabric and a coated object, wherein the coating fabric includes a fabric body and a free end, the free end is folded upwardly and then fixed with the fabric body to form a strip-shaped accommodating hole, the accommodating hole is internally provided with a fixing rod in a penetrating manner, an accommodating groove is provided in the bottom of the coated object, and the fixing rod is engaged within the accommodating groove. A product coated by the crimping structure of the utility model is attractive, natural and full in effect, and difficult to crimp.

Abstract: A rigid-flex circuit board includes a core substrate, a first adhesive layer, and a first outer conductive circuit layer. The core substrate includes a first and a second base layer, a first and a second conductive circuit layer respectively on the first and second base layer, and an insulating layer between the first and second base layer. The first and second conductive circuit layer are embedded in the insulating layer. The first adhesive layer is on the first base layer and defines a first opening which exposes the first opening. The first outer conductive circuit layer is on the first adhesive layer and defines an opening aligned with the first opening. A portion of the core substrate located within the first opening is defined as a flexible board section, and the portions of the core substrate located outside of the first opening are defined as a hard board section.

Abstract: A device and method for fabricating a photovoltaic device includes forming a double layer transparent conductive oxide on a transparent substrate. The double layer transparent conductive oxide includes forming a doped electrode layer on the substrate, and forming a buffer layer on the doped electrode layer. The buffer layer includes an undoped or p-type doped intrinsic form of a same material as the doped electrode layer. A light-absorbing semiconductor structure includes a p-type semiconductor layer on the buffer layer, an intrinsic layer and an n-type semiconductor layer.

Abstract: A device and method for fabricating a photovoltaic device includes forming a double layer transparent conductive oxide on a transparent substrate. The double layer transparent conductive oxide includes forming a doped electrode layer on the substrate, and forming a buffer layer on the doped electrode layer. The buffer layer includes an undoped or p-type doped intrinsic form of a same material as the doped electrode layer. A light-absorbing semiconductor structure includes a p-type semiconductor layer on the buffer layer, an intrinsic layer and an n-type semiconductor layer.

Abstract: A rigid-flex circuit board includes a core substrate, a first adhesive layer, and a first outer conductive circuit layer. The core substrate includes a first and a second base layer, a first and a second conductive circuit layer respectively on the first and second base layer, and an insulating layer between the first and second base layer. The first and second conductive circuit layer are embedded in the insulating layer. The first adhesive layer is on the first base layer and defines a first opening which exposes the first opening. The first outer conductive circuit layer is on the first adhesive layer and defines an opening aligned with the first opening. A portion of the core substrate located within the first opening is defined as a flexible board section, and the portions of the core substrate located outside of the first opening are defined as a hard board section.

Abstract: An electric air pump includes a casing including an interior space; a pumping mechanism disposed in the space and including a driving device, a reciprocating piston driven by the driving device for compressing air, and an outlet being in fluid communication with the reciprocating piston; an on/off switch is disposed on the casing and including a switch contact configured to electrically connect to the driving device or not; and a USB receptacle disposed on the casing and electrically connected to the switch contact.

Abstract: A FPCB includes a base layer defining at least one first through hole. A conductive paste block is formed in each first through hole. Each conductive paste block includes a first and a second end portion. The base layer has opposite surfaces, and a first conductive wiring layer is formed on each surface of the base layer. The first end portion at least protrudes from the base layer and is exposed from the first conductive wiring layer. An insulating layer and a second conductive wiring layer are formed on each first conductive wiring layer. At least one second through hole is defined in each insulating layer. The second through hole positioned near the first end portion extends to the first end portion and forms a recess. A conductive via is formed in each second through hole and the corresponding recess, and is electrically connected to the conductive paste block.

Abstract: A rigid-flex circuit board includes a core substrate, a first outer conductive circuit layer, and a second outer conductive circuit layer. The core substrate includes a first base layer and a second base layer. A first conductive circuit layer is formed on a surface of the first base layer, and a second conductive circuit layer is formed on a surface of the second base layer. An insulating layer is located between the first base layer and the second base layer. The first conductive circuit layer and the second conductive circuit layer are embedded within the insulating layer. A portion of the core substrate located within the first opening and the second opening is defined as a flexible board section, and the portions of the core substrate located outside of the first opening and the second opening are defined as a hard board section.

Abstract: A FPCB includes a base layer defining at least one first through hole. A conductive paste block is formed in each first through hole. Each conductive paste block includes a first and a second end portion. The base layer has opposite surfaces, and a first conductive wiring layer is formed on each surface of the base layer. The first end portion at least protrudes from the base layer and is exposed from the first conductive wiring layer. An insulating layer and a second conductive wiring layer are formed on each first conductive wiring layer. At least one second through hole is defined in each insulating layer. The second through hole positioned near the first end portion extends to the first end portion and forms a recess. A conductive via is formed in each second through hole and the corresponding recess, and is electrically connected to the conductive paste block.

Abstract: A FPCB includes a base layer defining at least one first through hole. A conductive paste block is formed in each first through hole. Each conductive paste block includes a first and a second end portion. The base layer has opposite surfaces, and a first conductive wiring layer is formed on each surface of the base layer. The first end portion at least protrudes from the base layer and is exposed from the first conductive wiring layer. An insulating layer and a second conductive wiring layer are formed on each first conductive wiring layer. At least one second through hole is defined in each insulating layer. The second through hole positioned near the first end portion extends to the first end portion and forms a recess. A conductive via is formed in each second through hole and the corresponding recess, and is electrically connected to the conductive paste block.

Abstract: The present disclosure relates to a semiconductor device package and a manufacturing method thereof. The semiconductor device package includes a carrier, at least one electronic component, a first magnetic layer and a second magnetic layer. The carrier has a top surface on which the electronic component is disposed. The first magnetic layer is disposed on the top surface of the carrier and encapsulates the electronic component. The second magnetic layer is disposed on the first magnetic layer and covers a top surface and a lateral surface of the first magnetic layer. A permeability of the first magnetic layer is less than a permeability of the second magnetic layer.

Abstract: A device and method for fabricating a photovoltaic device includes forming a double layer transparent conductive oxide on a transparent substrate. The double layer transparent conductive oxide includes forming a doped electrode layer on the substrate, and forming a buffer layer on the doped electrode layer. The buffer layer includes an undoped or p-type doped intrinsic form of a same material as the doped electrode layer. A light-absorbing semiconductor structure includes a p-type semiconductor layer on the buffer layer, an intrinsic layer and an n-type semiconductor layer.

Abstract: A device and method for fabricating a photovoltaic device includes forming a double layer transparent conductive oxide on a transparent substrate. The double layer transparent conductive oxide includes forming a doped electrode layer on the substrate, and forming a buffer layer on the doped electrode layer. The buffer layer includes an undoped or p-type doped intrinsic form of a same material as the doped electrode layer. A light-absorbing semiconductor structure includes a p-type semiconductor layer on the buffer layer, an intrinsic layer and an n-type semiconductor layer.

Abstract: A circuit board includes a core layer, at least one passive component, a first and a second conductive wire layers, at least one contact pad, and a resin packing layer. The core layer defines at least one through hole to receive the passive component. The first and the second conductive wire layers are connected to two opposite surfaces of the core layer. Each contact pad is positioned between and connected to one passive component and the first conductive wire layer. The resin packing layer is filled among the core layer, each passive component, each contact pad, the first and the second conductive wire layers. The resin packing layer can connect the first and the second conductive wire layers to the core layer, and connect the core layer, each passive component, and each contact pads to each other.

Abstract: The present disclosure relates to a semiconductor device package. The semiconductor device package includes a substrate, a semiconductor device, a plurality of electronic components, a first package body, a patterned conductive layer and a feeding element. The semiconductor device and the plurality of electronic components are disposed on the substrate. The first package body covers the semiconductor device but exposes the plurality of electronic components. The patterned conductive layer is formed on the first package body. The feeding element electrically connects the patterned conductive layer to the plurality of electronic components.

Abstract: A circuit board includes a core layer, at least one passive component, a first and a second conductive wire layers, at least one contact pad, and a resin packing layer. The core layer defines at least one through hole to receive the passive component. The first and the second conductive wire layers are connected to two opposite surfaces of the core layer. Each contact pad is positioned between and connected to one passive component and the first conductive wire layer. The resin packing layer is filled among the core layer, each passive component, each contact pad, the first and the second conductive wire layers. The resin packing layer can connect the first and the second conductive wire layers to the core layer, and connect the core layer, each passive component, and each contact pads to each other.