Abstract:
A circuit module for connecting to a circuit board is disclosed, the circuit module for connecting to a circuit board, wherein the circuit module comprises a substrate having a top surface, a bottom surface and a lateral surface connecting the top surface and bottom surface, wherein at least one electrical component is disposed on the top or bottom surface and a plurality of surface-mount pads are disposed on the lateral surface of the substrate for electrically connecting to corresponding pads on the circuit board.
Abstract:
An embodiment is a memory card including a rectangular printed circuit card having a first side and a second side, a first length of between 151.35 and 161.5 millimeters, and first and second ends having a second length smaller than the first length. The memory card also includes a first plurality of pins on the first side extending along a first edge of the rectangular printed circuit card that extends along a length of the rectangular printed circuit card, a second plurality of pins on the second side extending on the first edge of the rectangular printed circuit card, and a positioning key having its center positioned on the first edge of the rectangular printed circuit card and located between 94.0 and 95.5 millimeters from the first end of the rectangular printed circuit card.
Abstract:
Conductive contacts can be disposed on multiple substrates or on different surfaces of a single substrate. Conductive material is disposed over at least a portion of the two conductive contacts to electrically connect the contacts. The conductive material may be disposed over at least one surface between the conductive contacts. One or more conductive borders can be formed on a surface of a conductive layer. The conductive border or borders can improve signal transmission across the surface of the conductive layer.
Abstract:
A printed circuit board (PCB) prevents damage to tabs of the PCB and pins of a slot by reducing insertion force when the PCB is inserted in the slot. The PCB includes a body portion including a first surface and a second surface and a metal interconnection layer formed on at least one of the first and second surfaces. The metal interconnecting layer includes tabs formed along a first edge of the body portion. An insertion force alleviation portion in which at least a portion of the body portion is removed is formed in the first edge to reduce the insertion force required to seat the PCB within the slot.
Abstract:
A printed circuit board is disclosed. The board has a first end having a plurality of fingers in a cooperating relationship with a second end of a second adjacent circuit board. The board has a second end having a second plurality of fingers in a cooperating relationship with a first end of a first adjacent circuit board. The board has a first portion of an electrical trace on at least one of the first plurality of fingers positioned to allow an electrical connection to the second end of the second adjacent circuit board, and a second portion of the electrical trace on at least one of the second plurality of fingers positioned to allow an electrical connection to the first end of the first adjacent circuit board.
Abstract:
A connector for electrically connecting a first printed circuit board (PCB) with a second PCB wherein, in one example, the connector includes a housing having a keyed feature adapted to mate with a correspondingly keyed feature provided to each of the first and second PCBs and at least one connecting terminal carried by the housing having at least partially exposed opposed ends each of which electrically engages a contact pad formed on an underside of the respective PCBs. The connecting terminal may be arranged to accept a conductor and to thereby electrically couple the conductor to the first and second PCBs.
Abstract:
A semiconductor device housing package includes a base body having, on its upper surface, a mounting region of a semiconductor device; a frame body having a frame-like portion disposed on the upper surface of the base body, surrounding the mounting region, and an opening penetrating through from an inner side of the frame-like portion to an outer side thereof; a flat plate-like insulating member disposed in the opening, extending from an interior of the frame body to an exterior thereof; wiring conductors disposed on an upper surface of the insulating member, extending from the interior of the frame body to the exterior thereof; and a metallic film disposed on a part of the upper surface of the insulating member, the metallic film lying outside the frame body surrounding the wiring conductors.
Abstract:
Disclosed is a secondary battery comprising: a bare cell; a protection circuit module having a board having a first hole formed by opening a portion of a first short edge thereof and located on the bare cell; and a first lead plate located between the bare cell and the protection circuit module to support portions of the board located on opposite sides of the first hole about the first hole thereby.
Abstract:
A connector for electrically connecting a first printed circuit board (PCB) with a second PCB wherein, in one example, the connector includes a housing having a keyed feature adapted to mate with a correspondingly keyed feature provided to each of the first and second PCBs and at least one connecting terminal carried by the housing having at least partially exposed opposed ends each of which electrically engages a contact pad formed on an underside of the respective PCBs. The connecting terminal may be arranged to accept a conductor and to thereby electrically couple the conductor to the first and second PCBs.
Abstract:
Described herein are antenna designs and configurations that provide flexible solutions for creating compact antennas with multiple-band capabilities. For example, a hybrid PIFA-monopole antenna configuration and design is described. As another example, non-planar (e.g., orthogonal) and composite radiating structures incorporating various radiating element and ground plane configurations are described. Connective structures are also described for providing physical rigidity and ground plane connectivity to composite radiation elements. In embodiments described herein of composite radiating structures, multiple antennas may be included through passive radiating elements potentially combined with active circuitry. Composite radiating structures with multiple antennas may be used in multiple-in and multiple-out (MIMO) antenna applications. For example, multiple different antennas within the composite radiating structures may be created using radiating elements on one or more of the vertical and/or horizontal portions of the composite radiating structure.