Abstract: A receptacle connector for mating with a plug connector, the receptacle connector includes: a terminal module comprising an insulative housing, two rows of terminals, and a metallic shielding plate, the insulative housing having a base portion and a tongue portion, the tongue portion defining two opposite surfaces, the two rows of terminals being reversely-symmetrically arranged at the two surfaces of the tongue portion, the metallic shielding plate located between the two rows of terminals; and a shielding shell retained to the insulative housing and forming a mating cavity to receive the tongue portion, wherein the shielding shell defines a mating protrusion on one of the plurality of side walls, the mating protrusion extending outwardly to be precluded from reversely mating with the plug connector which has a contour compliant with said mating cavity and an identification protrusion accommodated in the mating protrusion.

Abstract: An electronic device includes a framework having a number of ribs to define a number of receiving grooves therebetween, a number of modules detachably received in the receiving grooves, and a pair of elastic members mounted to a respective module. Each receiving groove has a pair of apertures in the ribs. Each of the modules has a pair of through holes. Each of the elastic members includes a protrusion extending through the through hole toward a corresponding rib and a leg resiliently urging the protrusion to fit into a corresponding aperture.

Abstract: An electrical connector includes a terminal module including an insulative housing, and upper contacts, lower contacts and a shielding plate embedded in the housing. The housing includes a base and a mating tongue extending from the base, the mating tongue defines an upper surface, a lower surface and a front face thereof. The upper and lower contacts includes contacting sections exposing to the upper and lower surfaces of the mating tongue and soldering sections out of the base and connecting section jointing the contacting sections and the soldering sections, respectively. The shielding plate is disposed between the upper and lower contacts and includes a pair of side latches. The housing includes an insulative sub-housing and an insulative coat, the whole upper surface and the whole front face of the mating tongue and part of the lower surface of the mating tongue are formed with the coat.

Abstract: The electrical connector assembly includes an insulative housing and a plurality of contacts retained in the housing. The stand includes a support and a spring supporting the support. The electrical connector is seated upon the support and moveable along with the support in the vertical direction due to deformation of the spring. Each of the contacts includes an upper contacting section and a lower contacting section. An electronic component located upon the housing and downwardly pressing and mechanically and electrically connected to the upper contacting sections. An FPC is sandwiched between the support and the electrical connector and mechanically and electrically connected to the lower contacting sections.

Abstract: An electrical connector includes: a contact module having an insulative housing, two rows of terminals affixed to the insulative housing, and a metal shielding plate, the insulative housing comprising an annular receiving groove, a base portion located behind the annular receiving groove, and a tongue portion extending forwardly from the annular receiving groove, each terminal having a contacting portion exposed to a surface of the tongue portion, a soldering portion, and a connecting portion; an inner metal shell attached to the contact module; and an outer shell enclosing the inner metal shell; the connecting portion has an exposed portion located at a rear end of the connecting portion and suspended in the annular receiving groove, the annular receiving groove receives glue to form a sealer sealing between the contact module and the outer shell, and the exposed portion is embedded in the glue.

Abstract: An electrical connector includes an insulative housing, a number of terminals retained in the insulative housing, a shielding shell attached to the insulative housing, and an insulator insert-molded with a rear end of the shielding shell. The terminals have a number of soldering portions extending out of a rear surface of the insulative housing. The shielding shell has a tail portion located at a rear end thereof. The insulator at least wraps partly an external surface of the tail portion to seal up a rear end of the insulative housing and extend the soldering portions of the terminals through the insulator to expose a rear surface thereof.

Abstract: A transceiver module includes a printed circuit board and a metal housing enclosing the printed circuit board and defining a front opening, the metal housing including a base portion and a cover portion, the base portion including two opposite side portions, the cover portion including two opposite fixing portions each engaged with a corresponding side portion; wherein each of the side portions defines a gap having an outside opening on an outside wall thereof, each of the fixing portions includes a top portion inwardly extending from a top end thereof, and the top portion is inserted in a corresponding gap.

Abstract: An electrical connector includes an terminal module and a metallic tubular shield fixedly enclosing the terminal module to form a sub-assembly, and a metallic tubular bracket enclosing the sub-assembly. The terminal module includes an insulator having a base and a tongue portion forwardly extending from the base, and a plurality of terminals disposed in the insulator. The base includes a rear end having a securing section, and the bracket has a fixing section correspondingly, wherein the bracket is adapted to be forwardly assembled from a rear side of the sub-assembly to have the fixing section engaged with the securing section.

Abstract: A power connector includes: an insulative housing including an upper surface, a lower surface, and a receiving space; a number of contacts accommodated in the insulative housing each including a contacting portion, a rear portion accommodated in a rear end of the insulative housing, and a corrugated elastic portion connecting the contacting portion and the rear portion, the contacting portion including a lower tongue plate extending forwardly from the corrugated elastic portion, an upper tongue plate, and a curved section connecting the lower tongue plate and the upper tongue plate; wherein the curved section has a pair of contact beams.

Abstract: An electrical connector connecting with a chip module includes a base with a receiving space and a cover covering on the base. The cover includes a first edge, a second edge, a third edge and a fourth edge. The four edges connect with each other to form four engaging portions, and a rectangular opening surrounded therein. The first edge is pivotally connected to the base. The cover includes an extending portion extending from the second edge. The cover includes four pressing portions located at four inner corners of the cover.

Abstract: A cable connector assembly includes a cable and a connector electrically connected with the cable for further electrically connecting with a power source. The connector includes: a main body; a plurality of contacts retained to the main body; a light emitting element; a printed circuit board (15) for controlling the light emitting element to emit light; and an outer case enclosing the connector and defining an indication area; wherein the connector further includes a conducting member mounted on the printed circuit board (15), the conducting member is a spring plate made of metal material pressing upon the indication area of the outer case, a front end of the outer case defines a transparent portion made of transparent material, and upon pressing the indication area, capacitance is affected and the light emitting element is turned on to emit light through the transparent portion.

Abstract: An electrical connector includes: an insulative housing having a tongue portion, the tongue portion defining two opposite surfaces, each surface of the tongue portion including twelve terminal positions; and two rows of terminals being reversely-symmetrically arranged at the two surfaces of the tongue portion, each terminal having a contact portion exposed on the tongue portion, each row of terminals comprising two grounding terminals respectively arranged at the first and the twelfth terminal positions of the twelve terminal positions, and two power terminals respectively arranged at the fourth and the ninth terminal positions of the twelve terminal positions, the second, third, tenth and eleventh terminal positions of the twelve terminal positions being defined as vacant spaces, one or more further power terminals being arranged at the vacant spaces.

Abstract: An electrical connector comprises: an insulative housing and a plurality of terminals retained in the insulative housing. The insulative housing has a base portion and a mating tongue. The mating tongue comprises a stepped portion extending from the base portion and a tongue portion extending from the stepped portion. The insulative housing defines an outer periphery. The stepped portion defines a front face. The base portion defines a rear face. The terminal defines a connecting portion buried in the base portion and the stepped portion, a contacting portion extending from the connecting portion. The insulative housing defines a sealing member filling in the periphery of the connecting portion. The sealing member not extends out the front face of the stepped portion, the rear face of the base portion and the out periphery of the insulative housing. It is favorable for improving the waterproof effect of the electric connector.

Abstract: A electrical connector (100) includes an insulative housing (1), a number of terminals (2), a stiffener (3) and a pair of insulative members (4). The insulative housing includes a tongue portion (11) defining a number of first passageways (111a) and two molding holes (115a, 115b) communicating with the first passageways for accommodating a number of molds. The stiffener is insert molded with the insulative housing and defines two openings (33a, 33b) communicating with the molding holes. The insulative members cover the openings for sealing the molding holes after removal of the molds.

Abstract: An electrical connector includes: an insulative housing having a base portion and a tongue portion extending forwardly from the base portion, the tongue portion having a plurality of terminal-receiving slots, a respective separating wall being disposed between every two neighboring terminal-receiving slots, at least one separating wall having an extending portion extending backwardly along an insertion direction to be located behind respective rear ends of the other separating walls; a number of terminals retained in the insulative housing and including a row of first contacts, each first contact having a pair of gaps located forwardly of the extending portion along the insertion direction; a metallic shielding plate retained in the insulative housing; and a shielding shell attached to the insulative housing.

Abstract: An electrical connector includes an insulative housing, a number of terminals disposed in the insulative housing, a metallic shielding plate, and a shell. The insulative housing defines a base portion and a tongue portion extending upwardly from the base portion. The terminals have at least one grounding contact located laterally. The at least one grounding contact has a connecting portion retained in the base portion, a soldering portion extending backwardly from the base portion, and a tail portion extending upwardly from the connecting portion and exposed from a gap of the tongue portion. The metallic shielding plate has a bridge portion enclosing a front end of the tongue portion and a pair of side portions extending backwardly from two sides of the bridge portion. The side portions partly cover side edges of the tongue portion and electrically connect with the tail portions of the at least one grounding contact.

Abstract: An electrical switch (100) includes an insulative housing (110) forming a receiving space therein, a fixed contact set (121, 122) retained in the housing (110), a movable contact set (131, 132) located above the fixed contact set (121, 122), and a cover (140) mounted upon the housing, wherein the moveable contact set (131, 132) further includes at least three outwardly and downwardly extending protrusions (133) on a periphery at equal intervals so as to support up-and-down movement of the moveable contact set (131, 132) during operation with a superior manual feeling.

Abstract: A method of manufacturing an electrical connector including the steps of: insert-molding a base portion around a shielding plate to form two rows of passageways exposing outwardly and rearwardly; over-molding an insulative housing at a rear of the base portion; and inserting two rows of terminals through the insulative housing to the two rows of passageways, respectively.

Abstract: A printed circuit board assembly comprises a printed circuit board (PCB) defining a mounting end and an opposite contacting end, a row of first pads on the mounting end, a row of second pads on the contacting end, and an edge connector on the contacting end electrically contacted with the second pads, and a high speed line module mounted on a top side of the PCB and including a group of conductive lines, the conductive lines extending parallel to each other over the plane of the PCB, each conductive line having two ends electrically connected to corresponding first and second pads, respectively.

Abstract: An optical coupling system and method are provided for coupling light from a light source into an optical fiber that reduce back reflection of light into the light source and provide controlled launch conditions that improve forward optical coupling. The optical coupling system comprises at least one flat surface having perturbations formed therein over at least a portion of the flat surface that intersects an optical pathway. The perturbations have a lateral width and a height that are preselected to increase forward optical coupling efficiency and to decrease back reflection of the light beam from the optical fiber end face into the light source. The perturbations improve forward optical coupling by creating a complex light beam shape that is preselected to better match a spatial and angular distribution of a plurality of light modes of the optical fiber.