Systems, methods, and devices for electrically coupling an integrated circuit to a set of coaxial lines via a printed circuit board assembly are described. A device sample holder includes a printed circuit board that is operable to edge-couple to an integrated circuit. A surface of the printed circuit board that carries a set of coaxial connectors is orthogonal to another surface of the printed circuit board that exposes a set of conductive traces. The set of conductive traces are operable to electrically couple to a set of conductive paths of an integrated circuit to provide a communicative path between the integrated circuit and components of an input/output system in a refrigerated environment.

A support for light source(s) for a lighting and/or light signaling module for a motor vehicle, comprising a substrate of thermally conductive material, preferentially of metallic material, at least one light source of the light-emitting or laser diode type with a face for mounting on the substrate, in thermal contact therewith and an electrical power supply circuit for the light source or sources. The power supply circuit is linked electrically with the light source or sources by means of metal wires soldered on the surface by the technology commonly referred to by the expression “wire bonding”. The measures of the invention make it possible to define at least one reception plane for the light sources oriented in such a way as to avoid having components in the vicinity of the light sources casting shadows thereon.

Disclosed is a circuit board having a contact pad for connection with an external device, which protrudes from an upper surface of an outermost insulating layer. A device can be mounted on the circuit board, and a connection terminal of the device can be connected to the contact pad of the circuit board by a wire etc.

The disclosure relates to an electronic component that includes a printed circuit board with two opposite flat sides and a plurality of electronic components, and a base plate. A number of the electronic components are each fixed on and electrically conductively connected to a rear flat side of the printed circuit board and a further number of the electronic components are each fixed on and electrically conductively connected to a front flat side of the printed circuit board. The base plate has at least one first cutout for receiving electronic components that are arranged on the rear flat side of the printed circuit board. The disclosure also relates to a method for producing an electronic component of this kind.

A semiconductor package includes a first substrate, a first conductive layer, a first surface mount device (SMD) and a first bonding wire. The first substrate has a first top surface. The first conductive layer is formed on the first top surface and has a first conductive element and a second conductive element separated from each other. The first SMD is mounted on the first top surface, overlapping with but electrically isolated from the first conductive element. The first bonding wire electrically connects the first SMD with the first conductive layer.

A metal stem includes a cylindrical portion in which an FPC inserting portion is formed, and a base standing upright from one plane of the cylindrical portion. A tubular lens cap with one open end is fixed to a peripheral portion of the one plane of the cylindrical portion, and has a lens mounted on a bottomed portion. A substrate mounted on one plane of the base includes a signal wiring layer and a ground wiring layer. An optical semiconductor element is mounted on the substrate and has a signal terminal connected to the signal wiring layer of the substrate, and a ground terminal connected to the ground wiring layer of the substrate. An FPC substrate is disposed so as to pass through the FPC inserting portion and to face the one plane of the base. The FPC substrate includes a signal wiring layer connected to the signal wiring layer of the substrate with a metal wire.

A wiring board includes: a metal plate having first and second surfaces opposite to each other, and having at least one through-hole penetrating through the first and second surfaces; at least one conductive via respectively disposed in the through-hole and spaced apart from the metal plate; an insulating structure including at least one through-insulating portion disposed between the through-hole and the conductive via, and a first insulating layer and a second insulating layer extending from the through-insulating portion and disposed in first regions surrounding the conductive via, on the first surface and the second surface, respectively; at least one first upper pad disposed on the first insulating layer and electrically connected to the conductive via; at least one first lower pad disposed on the second insulating layer and electrically connected to the conductive via; a second upper pad disposed on the first surface of the metal plate; and a second lower pad disposed on the second surface of the metal plate and electrically connected to the first upper pad through the metal plate.

The printed circuit board for the memory card includes an insulating layer; a mounting unit formed on a first surface of the insulating layer and electrically connected to a memory device; a terminal unit formed on a second surface of the insulating layer and electrically connected to electronic apparatuses of an outside; and metal layers formed at the mounting unit and the terminal unit and made of the same material.

The present invention provides a COF structure, which comprises a thin-film body, two or more driving chip, bonding wires, and bonding marks. The two or more driving chips are disposed on the same thin-film body, to generate driving signals. The bonding wires are disposed on a top side or a bottom side of the thin-film body, to form a bonding connection between external signal lines and wires of the driving chips The bonding marks are disposed laterally on the thin-film body, to perform a location operation on the thin-film body which is used for a bonding operation.

Disclosed herein is a semiconductor device including: a semiconductor circuit element configured to process an electrical signal having a predetermined frequency; and a transmission line configured to be connected to the semiconductor circuit element via a wire and transmit the electrical signal. An impedance matching pattern having a symmetric shape with respect to a direction of the transmission line is provided in the transmission line.