Abstract:
This disclosure relates generally to a chip package assembly arranged to be electrically coupled to a circuit board 106 including a plurality of circuit board contacts. The chip package assembly may include a chip package 102 including a first side 118 and a second side 120, the second side including a first plurality of contacts arranged to be electrically coupled to the plurality of circuit board contacts and a second plurality of contacts arranged to be electrically coupled to a remote device via a connector assembly 122.
Abstract:
A wiring board 10 includes a plurality of wiring layers 22, a plurality of insulating layers 23, and an electrode member 20 made of a conductive material, the electrode member 20 being incorporated in the wiring board 10 in a state in which the electrode member 20 includes exposed sections 20S on side surfaces 13 and 14 that cross the plurality of wiring layers 22 and the plurality of insulating layers 23.
Abstract:
The invention relates to a three-dimensional circuit board (1), comprising a carrier component (10; 30), carrying at least one circuit path (110, 120) at an outside of a carrier body (100; 300) of the carrier component (10; 30), wherein, for impedance control, the carrier body (100; 300) comprises a deepening (102), wherein the circuit path (110, 120) is at least partially arranged in the deepening (102).
Abstract:
A sensor comprises a preferably multilayered ceramic substrate (2) and at least one sensor element (1) arranged in, at or on the ceramic substrate (2). Contact can be made with the sensor element (1) via a metallic contact (6), wherein the metallic contact (6) is produced by means of a soldering connection that electrically connects the contact (6) to the sensor element (1) and in the process produces a fixed mechanical connection of the contact (6) relative to the ceramic substrate (2). A method for producing the sensor according to the invention is furthermore claimed.
Abstract:
A printed circuit assembly (10) includes a base printed circuit (12) having a printed circuit receiving area (29) and a plurality of electrical contacts provided on the printed circuit receiving area (30). The printed circuit assembly also includes a secondary printed circuit (14) having a secondary substrate (54) including a mating edge (46) and a plurality of secondary contacts (70) provided along the mating edge. The secondary printed circuit is mounted on the base printed circuit such that the mating edge of the secondary printed circuit is directly engaged with the base printed circuit at the printed circuit receiving area. Each of the secondary contacts is electrically connected to a corresponding one of the electrical contacts of the base printed circuit.
Abstract:
A flexible cable for carrying RF signals and method of manufacturing same. The cable (170) includes an elongate base substrate including a dielectric layer (176) with an upper metal layer (178) deposited on one side and a lower metal layer (174) deposited on its other side. It further includes two parallel spaced-apart series of vias (180) formed along the length of the base substrate, each via electrically interconnecting the upper metal layer and the lower metal layer, whereby a rectangular cross-sectional waveguide (190) is provided between the upper metal layer, the lower metal layer and the two series of vias.
Abstract:
A semiconductor device (1) includes: a semiconductor element (2) having an imaging function, one surface (2a) of which serves as a light-receiving surface; a package (3) having a recess (3a) containing the semiconductor element (2) with the light-receiving surface (2a) facing outward; a light-transmitting plate (5) closing the recess (3a) of the package (3) containing the semiconductor element (2); a conductor (4) provided at the package (3), electrically connected to the semiconductor element (2), and electrically connected to an external circuit; a heat conductive member (6) provided to protrude from another surface of the semiconductor element (2); and a printed circuit board (7) on which the external circuit is provided, on which the semiconductor element (2) is mounted in electrical connection with the external circuit, and which is formed with an opening (7b) to serve as a clearance for the heat conductive member (6).
Abstract:
Lighting devices for a vehicle are dislosed that can include a light emitting diode and control circuitry for the light emitting diode. Also disclosed are circuits for a light emitting diode. Additionally, a method of forming a lighting device is disclosed. The lighting device, circuits, and method can be used, for example, to illuminate the interior of a vehicle.
Abstract:
The invention relates to an electronic module (1) comprising at least one circuit carrier (3) coated on both sides with an electroconductive material and fitted with a first group of electronic components (2, 2') for forming a user interface and a second group of electronic components (4, 4') for forming a computing and control module. The invention also relates to a method for producing one such module (1). According to said method, the components (2, 2', 4, 4') are carefully arranged respectively on the cover side (5) and on the appliance side (7) of the module (1) in such a way that the design and function of the module (1) can be completely unrelated. In order to reduce the production costs of the inventive module, printed circuit boards coated on both sides are used as circuit carriers (3) that are free of STH through-connection points. According to the invention, the signal transmission is carried out via plug-in elements (8), lateral elements (9), and through-connection elements (10).