Abstract:
An electrical connector assembly includes an electrical connector, a chip located and a printed circuit board located at opposite sides of the anisoptropic conductive film. The electrical connector has an anisoptropic conductive film and a loading mechanism. The anisoptropic conductive film includes an adhesive and a number of conductive particles dispersed in the adhesive. The anisoptropic conductive film has conductivity only in a thicknesswise direction by pressing. The loading mechanism can exert pressure on the anisoptropic conductive film so that the chip and the printed circuit board electrically couples with each other.
Abstract:
An LED lead frame includes an insulative base having a cavity on one side. A pair of conductive leads each has an end exposed in the cavity and another end extended out of insulative base. An electrostatic discharge protection device is insert-molded in the insulative base with only one side thereof exposed out of the insulative base, and is electrically interconnecting with the conductive leads.
Abstract:
An electrical connector includes an insulative housing, a plurality of terminals secured in the housing, a metallic cover pivotally mounted to a rear end of the insulative housing and covering the insulative housing and at least one magnetic board lock secured at one side of the insulative housing and spaced with a distance from the rear end of the insulative housing. The at least one magnetic board lock assist to hold the cover by magnetic attractive force produced between the at least one magnetic board lock and the metallic cover on the insulative housing.
Abstract:
An electrical connector includes an insulative housing and a plurality of contacts. The insulative housing defines a base with opposite front and rear end regions along a front-to-back direction and a plurality of side walls upwardly extending from the base, the base cooperates with the sidewalls to commonly define a first receiving room. A notch defined in the front region of the base forms a second receiving room under the first receiving room, said second receiving room is smaller than the first receiving room. The contacts is disposed in the rear region of said housing with contacting sections extending upwardly beyond an upward mating face of the base and into the first receiving room. An optoelectronic module includes stacked upper portion and lower portion, said upper portion is received in the upper receiving room and said lower portion is received in the lower receiving room. Soldering tails of said contacts are located under the rear region of the base and do not extend into the second receiving room.
Abstract:
An electrical connector includes an insulating housing defining a pair of pivotal grooves on two opposite sides of a front end thereof and a L-shaped recess at each side thereof. A plurality of contacts are arranged in the housing. A metal shell defines a pair of pivotal posts sliding assembled in the pivotal grooves, the metal shell rotating downward to cover on the insulating housing. The shell defines a locking element extending to the front end of the housing and inserted in the L-shaped recess to lock the metal shell with the insulating housing.
Abstract:
A zero insertion force (ZIF) socket assembly comprises a ZIF socket and a pick-up cap. The ZIF socket includes a base, a cover, and a cam assembled to the base and rotated for driving the cover to move relative to the base between an opened position and a closed position. The pick-up cap is mounted to the ZIF socket and has a lock-up abutting against the cam for preventing the cam from rotating.
Abstract:
An electrical connector for electrically connecting a pin leg of a CPU with a trace of a PCB includes an insulative housing (3) and a contact (1). The contact includes a base (10) and a pair of arm sections (20) oppositely extending from lateral sides of the base for engagement with the pin leg. The base has a body section (12) for being secured in the insulative housing and a soldering section (14) for being soldered onto the PCB. Each arm section forms a heave (24) to interfere with the insulative housing because of deformation of the arm sections.