Abstract:
A semiconductor device includes: a semiconductor module case; a metal terminal externally extending from within the case; a semiconductor element disposed within the case and electrically connected to the metal terminal; and a printed wiring board having a wiring pattern formed on a surface thereof, the printed wiring board being connected to the semiconductor element through the metal terminal; wherein the external portion of the metal terminal includes a joining portion and a resilient portion, the joining portion being in surface contact with an external surface of the case, the resilient portion facing and being spaced from the joining portion; wherein the printed wiring board is inserted between the joining portion and the resilient portion; and wherein the wiring pattern on the printed wiring board is pressure-welded to the joining portion.
Abstract:
An electro-magnetic interference device attached to a surface of an object by soldering is disclosed. The device comprises a base comprising a surface defining at least one recessed portion. The at least one recessed portion comprises a side wall. An angle between the side wall and the surface of the base is equal to or greater than 90 degrees.
Abstract:
A connecting terminal, a semiconductor package, a wiring board, a connector, and a microcontactor that can achieve a stable contact with a contact target are provided. To achieve the object and to establish an electrical connection to a contact target by making a physical contact with the contact target, there are provided a plurality of conductive terminal-forming members each having a terminal portion, which is extended in a band shape and at least a part of a surface of which forms a curved surface. Each terminal portion is configured so that a part of which is laminated on a part of at least one terminal portion in a thickness direction. All the terminal portions may be laminated at respective tip portions in the thickness direction.
Abstract:
A sub system for a computing device comprising a plurality of chips mounted on a foldable substrate wherein the foldable substrate and the chips are layered by folding the substrate whereby the chips are disposed in at least one stacked configuration and wherein the sub system is adapted to be received on a host board. In addition, removable connections using resilient and nanostructure based members.
Abstract:
The disclosed embodiments relate to the formation of an electrical contact using a skiving technique. The electrical contact includes a spring structure that has been skived away from an underlying metal body, but the spring remains coupled with the metal body which provides a base for the spring structure. The skived spring portion of the electrical contact may comprise a cantilever-like spring, a coil-like spring, or any other suitable type of spring. Such a spring contact may be used to form an electrical connection between an integrated circuit device and a circuit board (or other substrate). Other embodiments are described and claimed.
Abstract:
A Flat Flex Connector (FFC) has connector flanges embedded in its insulated electrical traces. The flanges engage electrical circuits in a camera module such as a CMOS or CCD and are clamped into electrical engagement. The opposite end of the FFC makes electrical contact with another electrical device such as a semiconductor circuit. The assembly allows electrical connection of two or more devices in a confined space in which the electrical device are not easily aligned for electrical contact.
Abstract:
The disclosed embodiments relate to the formation of an electrical contact using a skiving technique. The electrical contact includes a spring structure that has been skived away from an underlying metal body, but the spring remains coupled with the metal body which provides a base for the spring structure. The skived spring portion of the electrical contact may comprise a cantilever-like spring, a coil-like spring, or any other suitable type of spring. Such a spring contact may be used to form an electrical connection between an integrated circuit device and a circuit board (or other substrate). Other embodiments are described and claimed.
Abstract:
A semiconductor device includes: a semiconductor module case; a metal terminal externally extending from within the case; a semiconductor element disposed within the case and electrically connected to the metal terminal; and a printed wiring board having a wiring pattern formed on a surface thereof, the printed wiring board being connected to the semiconductor element through the metal terminal; wherein the external portion of the metal terminal includes a joining portion and a resilient portion, the joining portion being in surface contact with an external surface of the case, the resilient portion facing and being spaced from the joining portion; wherein the printed wiring board is inserted between the joining portion and the resilient portion; and wherein the wiring pattern on the printed wiring board is pressure-welded to the joining portion.
Abstract:
A dual-personality extended USB (EUSB) system supports both USB and EUSB memory cards using an extended 9-pin EUSB socket. Each EUSB device 101 includes a PCBA having four standard USB metal contact pads disposed on an upper side of a PCB, and several extended purpose contact springs that extend through openings defined in the PCB. A single-shot molding process is used to form both an upper housing portion on the upper PCB surface that includes ribs extending between adjacent contact pads, and a lower molded housing portion that is formed over passive components and IC dies disposed on the lower PCB surface. The passive components are mounted using SMT methods, and the IC dies are mounted using COB methods. The extended 9-pin EUSB socket includes standard USB contacts and extended use contacts that communicate with the PCBA through the standard USB metal contacts and the contact springs.
Abstract:
In one embodiment, the present invention includes a circuit board having integrated contacts to mate with corresponding pads of a semiconductor device. At least some of the integrated contacts are of varying sizes to enable different contact resistances between the corresponding integrated contacts and pads, enabling reduced loading forces to adapt the semiconductor device to the circuit board. Other embodiments are described and claimed.