Abstract:
A circuit board assembly may include a first circuit board including a first slot. The circuit board assembly may include a second circuit board. The first circuit board may be interlocked with the second circuit board via interlocking provided by the second circuit board into the first slot.
Abstract:
Embodiments of this application disclose an electronic component and an electronic device, to achieve a three-dimensional stacked structure, reduce an area, and improve heat dissipation. In embodiments of this application, the electronic component includes an upper cover plate, a lower cover plate, and an enclosure frame. The upper cover plate carries a first circuit. The lower cover plate carries a second circuit. The enclosure frame is separately connected to the upper cover plate and the lower cover plate. An interconnection circuit is disposed in the enclosure frame, and the interconnection circuit is configured to implement interconnection between the first circuit and the second circuit. The first circuit and the second circuit overlap in a vertical direction without interfering with each other.
Abstract:
A three dimensional circuit module can include: a plurality of PCBs located on different faces, where surfaces of the PCBs include circuit modules; a plurality of circuit assemblies connected through components; where the plurality of circuit assemblies comprises at least one first circuit assembly having a first main board and at least one first side board that are located on different faces, where the first main board and at least one first side board of the first circuit assembly are obtained by integrated curing molding process; and where the first main board of the first circuit assembly is located on one PCB board, and the first side board is located on an adjacent PCB board, in order to realize connection of adjacent PCBs.
Abstract:
An electronic module includes a first circuit board. The first circuit board has electronic components, spacers, a cover plate, and a casting compound. The spacers are positioned so as to rest at least in corner regions of the first circuit board. The cover plate is positioned on the spacers. The casting compound acts as an end face and seals a gap formed by the spacers between the first circuit board and the cover plate, so as to form a housing for the electronic components, which are positioned therein. The casting compound secures the cover plate to the first circuit board via positive engagement. A coefficient of linear thermal expansion of the casting compound corresponds substantially to a coefficient of linear thermal expansion of the circuit board and of the cover plate.
Abstract:
A circuit board device includes a polyhedral support frame and a circuit board unit. The circuit board unit includes two rigid boards and a flexible board connecting the two rigid boards. The two rigid boards are folded with respect to each other through the flexible board and are disposed on different sides of the support frame, respectively.
Abstract:
An electrical connector includes a frame delimiting an elongated open cavity, and having two parallel long sides provided with contact areas capable of cooperating with contact areas of a complementary electrical connector. Each long side is formed of a multilayer printed circuit board.
Abstract:
A method of forming a light bulb core, and a light bulb or lamp incorporating the core. The method includes forming a heat sink having at least six working facets located equally on opposite sides of a central plane, and then mounting a light source on each of the working facets. The light sources are mounted on circuit boards, each circuit board corresponding to a respective one of the working facets. The boards are then applied to respective working facets. The bulb is composed of a screw base, an external heat sink mounted in the screw base, and the light bulb core mounted in and extending from the external heat sink. The light source comprises a plurality of light emitting diodes.
Abstract:
A lighting apparatus which provides an heat dissipation effect, high output and large light emitting area including: housing having rectangular cylindrical shape obtained by forming belt-like body including plurality of holding bodies in rectangular cylindrical shape and connecting end portions of belt-like body formed in rectangular cylindrical shape; and circuit board mounted on inner surface of the housing and including a light source. The circuit board includes: mounting portion mounted on inner surface of the housing and having a surface provided with the light source; and connecting portion which connects mounting portions adjacent to each other in peripheral direction of the housing and is bendable at a corner of adjacent inner surfaces of the housing, and rear surface of mounting portion contacts inner surface of the holding body. Therefore, it is possible to provide lighting apparatus which provides an excellent heat dissipation effect, high output and large light emitting area.
Abstract:
A microelectronic 3D packaging structure and a method of manufacturing the same are introduced. The microelectronic 3D packaging structure includes a first board with a plurality of a first edges and disposed with a first electronic device; a second board with a plurality of a second edges and disposed with a second electronic device, wherein at least one second edge of the second board is jointed to at least one first edge of the first board to form a joint line; and a joint connection portion disposed at the joint line of the two adjacent boards and adapted to function as a connection path for transmitting signals.
Abstract:
A novel light-emitting device that is highly convenient or reliable is provided. The light-emitting device includes a framework, a flexible first light-emitting panel supported by the framework so as to form a first developable surface, and a flexible second light-emitting panel supported by the framework so as to form a second developable surface.