According to one embodiment, a semiconductor storage device includes a housing, a first board, a heat generating component, an electronic component, and a thermal-conductive sheet. The housing has a first vent hole. The first board is accommodated in the housing. The heat generating component is mounted on the first board. The electronic component is disposed between the heat generating component and the first vent hole. The thermal-conductive sheet is provided to extend over the heat generating component and the electronic component, or provided to extend from a region positioned on a rear side of the heat generating component on the first board to the electronic component.

A printed board assembly (PBA) is provided. The PBA includes first printed circuit board (PCB), a second PCB disposed parallel to the first PCB and including a conductive area, a first interposer surrounding a space between the first PCB and the second PCB, and a wireless communication circuit, wherein the interposer may include a first partition wall structure configured to provide shielding for at least one electronic component disposed in the PBA, and a second partition wall structure connected to the first partition wall structure and including an dielectric material, the second partition wall structure including a conductive via configured to connect the first PCB and the second PCB, and the wireless communication circuit may transmit and/or receive a signal in a specified frequency band by feeding power to the conductive area of the second PCB through the conductive via.

Disclosed is an electronic device. The electronic device includes: a housing including a side wall at least partially configured as an antenna, a first printed circuit board disposed in the housing and including at least one ground part, a second printed circuit board, wherein the second printed circuit board includes an extension part extending along the side wall of the housing, a first part extending from one end of the extension part and connected to the first printed circuit board, and a second part extending from an opposite end of the extension part and electrically connected to the at least one ground part, at least one component disposed on the extension part, and a processor disposed on the first printed circuit board, and operatively connected to the at least one component through the first part of the second printed circuit board.

A laser ignition assembly comprises first and second mounting surfaces opposed to each other. A central cavity is formed through the surfaces and sized to receive energetic material therein. A vertical solder bridge is formed between the surfaces and an edge emitting laser diode disposed between the surfaces. The laser diode is oriented such that a light fluence therefrom is directed in a radial direction into the central cavity. The surfaces can be circuit boards, e.g., copper clad, rigid circuit boards, and have an annular shape. The central cavity can be further defined by an interboard gap between the surfaces. The ignition assembly can fit within a primer cup of a munition.

An RFID tag includes an RFID IC, flexible substrates including first wiring conductors and rigid substrates including second wiring conductors. Substrate surfaces of the flexible substrates include first regions connected to the rigid substrates and second regions that include opposite surfaces and are not connected to the rigid substrates. First conductor portions and second conductor portions included in the first wiring conductors are electrically connected to each other via the second wiring conductors. The RFID IC is connected to the first wiring conductors, the second wiring conductors, or both the first wiring conductors and the second wiring conductors.

A high voltage power supply can be compact with shielded electronic components. The power supply can include multiple stages separated by circuit boards. Electronic components for each stage can be directly soldered to adjacent circuit boards. Traces can pass through and electrically couple electronic components on each side of the circuit board between them.

A solid-state drive (SSD) includes a first rigid printed circuit board comprising a surface that defines a first plane. A second rigid printed circuit board of the SSD comprises a surface that defines a second plane that is substantially parallel to the first plane. A flexible interconnect couples the first rigid printed circuit board and the second rigid printed circuit board. The flexible interconnect partially encloses a volume. A capacitor is disposed within the volume.

A solution is provided that can be used in a communication node. A case is provided that supports a card module. The card module includes a circuit board with a front edge and a rear edge and includes a chiclet mounted adjacent the front edge. A housing can be pressed onto the circuit board and chiclet and be retain the housing in place. A transformer box is provided is provided on the circuit board between the housing and the rear edge. A POE card can be mounted on the circuit board between the transformer box and the housing.

Provided is an electronic control unit capable of suppressing an increase in size of a board. An electronic control unit of the present invention includes a connector having a power supply terminal, a power supply board 12 (first board), and a control board 13 (second board). The power supply board includes an inner-layer copper foil 55 (inner-layer conductor), and a power conversion circuit that converts input power input via a power supply terminal into predetermined output power is mounted thereon. The control board 13 includes an inner-layer copper foil 55, and mounted with a control circuit is mounted thereon. In addition, a thickness of the inner-layer copper foil 55 of the power supply board 12 is thicker than a thickness of the inner-layer copper foil 55 of the control board 13.

An electronic device is provided. The electronic device includes a housing, a first printed circuit board disposed in the inner space of the housing, a second printed circuit board disposed so as to overlap at least a portion of the first printed circuit board, when the first printed circuit board is viewed from above, a first interposer disposed between the first printed circuit board and the second printed circuit board, and electrically connecting the first printed circuit board and the second printed circuit board, and at least one second interposer which is disposed between the first printed circuit board and the second printed circuit board so as to be spaced apart from the first interposer when the first printed circuit board is viewed from above, and which electrically connects the first printed circuit board and the second printed circuit board.