Abstract: An electrical connector includes an insulative housing and a plurality of contacts is received in the housing. The insulative housing defines a mounting face, a mating face perpendicular to the mounting face and a number of passageways opening to both the mounting face and the mating face. Each contact includes a contacting portion located in front of the mating face of the insulative housing, and a first soldering portion and a second soldering portion adjacent to the mounting face. The second soldering portion is closer to the mating face relative to the first soldering portion.

Abstract: A socket connector includes a socket body and a plurality of contact terminals received in the socket body. The socket body includes an upper surface, a plurality of sidewalls extending upwardly from the upper surface. The upper surface and the sidewalls jointly define a cavity for receiving an IC package therein. At least one of the sidewalls is provided with a resilient arm having two ends connected to the sidewall and a close-loop slot behind the resilient arm. The resilient arm is provided with a positioning member extending toward the cavity.

Abstract: An electrical connector assembly includes a PCB and a first and a second connector body. The first connector body includes a first housing defining a first coupled face and a mounting face perpendicular to the first coupled face, and first contacts including first contacting portions exposing to the first coupled face and soldering portions exposing to the mounting face and fitly connect on a first surface of the PCB. The second connector body is assembled to the first connector body and includes a second housing including a mating portion with a lengthwise mating slot and a second coupled face confronting with the first coupled face and second contacts including mating portions extending in the lengthwise mating slot and second contacting portions exposing to the second coupled surface and pressing against the first contacting portions. The second housing defines mounting portions seating on a second surface of the PCB.

Abstract: An electronic card connector (100) defining a receiving space (10) and includes an insulative housing (1), a number of contacts (2) and an ejecting mechanism (3) retained in the insulative housing (1), and a metal shell (5). The ejecting mechanism (3) includes a slider (31) and a latch strip (34) fixed on the slider (31). The latch strip (34) has a retention portion (341) retained on the slider (31) and a spring arm (343) extending sidewardly. The spring arm (343) has an arm portion (3431) and a resistive portion (3432) extending sidewardly. The resistive portion (3432) is offset from the arm portion (3431) along a width direction. The metal shell (5) has a limiting wall (55) extending into the receiving space (10) for protecting the spring arm (343) from being resisted overly by an electronic card. The limiting wall (55) defines a plane which is located between that of the resistive portion (3432) and arm portion (3431).

Abstract: An electrical connector, comprising an insulative housing defining a base portion and a mating portion extending from the front side of the base portion along a mating direction; a plurality of passageways disposed in the base portion and extending along the mating direction; a plurality of receiving spaces disposed in the mating portion and communicating with the complementary passageways; a plurality of contacts assembling to the insulative housing along the mating direction, and each contact defining a flat base part mounting to the base portion of the insulative housing and a mating part extending from the base part forwards from the base part and into said receiving space; wherein a spring tab extending downwards from the base part of the contact and locked to the insulative housing.

Abstract: An electrical connector assembly (100) for electrically connecting a plurality of processing units (1) to a printed circuit board (8) comprises a substrate (4) and a plurality of sockets (6) assembled on the substrate (4) for retaining the processing units (1) respectively, the substrate (4) comprises a top surface (41) and a bottom surface (42) opposite to each other, the top surface (41) comprises a plurality of first contact elements (411) and the bottom surface (42) comprises a plurality of second contact elements (421), the socket (6) comprises an insulative housing (3) and a plurality of contacts (2) received therein for electrically contacting with one of the processing units (1).

Abstract: An electrical connector includes an insulative housing defining a base and a cover confronting with the base, and a plurality of contacts sandwiched between the base and the cover. The base defining at least one latching post to engaging with corresponding mating hole on the cover. The at least one post is a cone tubular with a diameter of a free end thereof larger than a diameter of a root thereof and the mating hole has a portion aligned with the free end which has a larger diameter than another portion thereof aligned with the root.

Abstract: A connector assembly (100) includes an insulative cover (11, 12) defining an interior and an exterior, and the insulative cover having at least one platform (18) disposed outside of the interior thereof; a printed circuit board (3) located in the interior of the insulative cover; at least one connector (2) mounted to the printed circuit board; and a conductive member (4) fixed to the insulative cover, said conductive member (4) including a main body (41), an arm (42) extending forwardly from the main body and a spring finger (43) formed at a front edge of the arm, the main body supported by the platform, the spring finger contacting the printed circuit board.

Abstract: An electrical connector (100) includes an insulative housing (1) and at least one contact (2) retained in the housing. The housing includes a base portion (11) and a mating portion (12) extending forwards from the base portion, and the base portion defines a mounting face (114) thereof and the mating portion defines a mating cavity (121) extending from a mating face (120) into the housing. The at least one contact defines a retaining portion (21) retained in the base portion, a resilient arm (22) extending from the retaining portion with a part projecting into the mating cavity and a soldering leg (23) arranged to parallel to the mounting face. The soldering leg is disposed within the scope of the mounting face and defines a first and a second soldering portion (231, 232) forming an angle therebetween.

Abstract: An electrical connector assembly (100) with antenna function comprising: a PCB (50) comprising a feeding circuit and a grounding circuit; an electrical connector (20) installed on the PCB comprising a metal shell (21) electrically connecting to the grounding circuit; a metal patch (30) connecting to the metal shell comprising a radiating element (33) and a connecting element (31); the radiating element electrical connecting to the feeding circuit; the connecting element connecting the radiating element and the metal shell; the radiating element, the connecting element, and the metal shell forming an antenna that serves as a medium for transmission and reception of electromagnetic signals.

Abstract: An electrical connector (100) mounted on a printed circuit board (200), the electrical connector includes an insulative housing (1) having a number of conductive members (32) and a LED device (2) disposed therein. Each conductive member includes a conductive pad (321) electrically connected with the printed circuit board. The LED device includes a LED (21) and a number of tail portions (221, 222) electrically interconnected with the LED. The tail portions are soldered on the conductive pads of the conductive members.

Abstract: A board-mount connector assembly (1000) includes a substrate (101) defining a cutout (1012) and two arms disposed at opposite sides of the cutout; a bracket (103) mounted to the substrate and disposed under the cutout; a connector (100) sinking in the cutout and supported by the bracket, and at least one wire (106) connected to the connector.

Abstract: A card edge connector for use with a daughter board, and comprises an insulative elongated housing extending along a longitudinal direction, and defining opposite first and second side walls and a central slot formed therebetween for receiving the daughter board therein, a plurality of contacts each defining a retention portion retained in the housing, a resilient contact portion extending into the central slot from an upper portion of the retention portion for contacting with the daughter board, and a solder tail extending out of the housing form a lower portion of the retention portion. Wherein the contacts include a first row of contacts disposed in the first side wall, and a second row of contacts disposed in the second side wall. The first row of contacts have at least two adjacent grounding contacts electrically connected with each other during the contact portions of the contacts are contacting with the daughter board.

Abstract: An electrical connector assembly includes a first and a second electrical connector each having two connector ports. The first connector port of the first connector has an insulating mating tongue with a plurality of contacts thereon and an insulating protecting frame arranged side by side with the mating tongue along a longitudinal direction of the first connector and spaced away from the mating tongue. The second connector port is received in the protecting frame and has a shielding shell surrounding therearound.

Abstract: An electrical connector assembly includes an electrical connector and a pick-up cap assembled to the electrical connector. The electrical connector has an insulative housing defining a substantially rectangular cavity in a middle thereof and a plurality of contacts received in the cavity. The pick-up cap includes a main portion with a planar top surface and a plurality of latching arms extending from two opposite edges of the main portion for engaging with the electrical connector. Each latching arm has an engaging arm extending in a direction for engaging with the electrical connector and a pressing arm extending in an opposite direction. When the pressing arm is pressed inwardly, the engaging arm expands outwardly to release the electrical connector.

Abstract: An electrical connector (100), comprising an insulative housing (1) defining a base portion (11) and a mating portion (12) extending from the front side of the base portion along a mating direction; a plurality of passageways (114) disposed in the base portion with an opening backwards and extending along the mating direction; a plurality of receiving spaces (121) disposed in the mating portion and communicating with the complementary passageways; a plurality of contacts (2) mounting to the insulative housing along the mating direction, and each contact including a flat base part (21) mounting to the base portion of the insulative housing, a connecting part (22) extending forwards from the base portion and received in the passageways, a mating part (23) extending from the connecting part and disposed in said receiving space, and a spacer part (24) located between the base part and the connecting part; wherein the spacer part covers the opening of the passageways.

Abstract: An electrical connector includes an insulated housing and a plurality of contact loaded in the insulated housing. The insulated housing defines an uninterrupted longitudinal slot extending in a first direction and through a mating face in a second direction perpendicular to the first direction the slot having a first and a second inner side faces facing to each other. The first inner side defines a groove extending through the mating face in the second direction. Each contacts includes a retaining portion retained in the insulated housing, a contacting portion exposing in the slot and a tail portion. The contacting portions defines a mating orientation along which the contacting portions contact with corresponding contacts of a counter electrical connector intended to be inserted in the slot.

Abstract: An electrical connector (100) includes an insulative housing (1) having a base portion (11) and a tongue portion (12) extending forwardly from the base portion along a mating direction, a number of contacts (2) assembled in the insulative housing, and an ejector (4) comprising a slider (41), a pin member (43), and at least one spring element (42) for cooperatively ejecting a mating component. The slider has a rear lengthwise portion (411) extending along the mating direction and a front transverse portion (412) perpendicular to the mating direction. The lengthwise portion is moveably assembled on the base portion, and the transverse portion is positioned upon the tongue portion for being pushed by the mating component.

Abstract: A positioning device, used in antenna's testing system, includes a crane, a fastening device, a testing antenna and a laser generator. The crane includes a gearing with a sliding shoe thereon. The fastening device is fixed on the sliding shoe of the crane. The testing antenna is fixed in font of the fastening device. The laser generator is fastened on the fastening device and located on a level different from the testing antenna. The laser generator sends out laser for defining the position of the testing antenna.

Abstract: A card connector includes a first inserting slot (151) for insertion of a first memory card (200) with first terminals (3) extending thereinto; a second inserting slot (152) for insertion of a second memory card (300) with second terminals (4) extending thereinto; and a partition wall (14) located between the first and second inserting slots for separating the first and second inserting slots. The partition wall has one spring arm (142) integrally extending therefrom and located between the first and second inserting slots, when one of the first and second memory cards (200, 300) is inserted into the corresponding one of the first and second inserting slots (151, 152), the spring arm (142) protrudes into the other one of the first and second inserting slots (151, 152) so as to prevent the other one of the first and second memory cards from being inserted into the other one of the first and second inserting slots.