Abstract: A board-to-board connector for mating with another connector has a housing and a plurality of terminals. The terminals and housing interact at a reference surface to accurately locate the terminals relative to the housing. The housing includes an elongated recess that extends parallel to a longitudinal axis of the housing and has a plurality of terminal receiving cavities spaced therealong. Each cavity includes a terminal retention wall with a reference surface on one side thereof and a terminal alignment opening extending from the cavity. Each terminals is disposed in a terminal receiving cavity. Each terminal includes a U-shaped retention portion, an L-shaped resilient contact portion extending from the U-shaped retention portion and has a contact projection thereon. A tail portion for interconnection to a circuit member is also provided.

Abstract: A board-to-board electrical connector assembly includes a first connector having a dielectric housing for mounting on a first printed circuit board for receiving a plug portion of a second connector mounted on a second printed circuit board. The connectors are mateable in a mating direction. A plurality of first conductive terminals are mounted on the housing of the first connector along the receptacle for engaging a plurality of second conductive terminals mounted along the plug portion of the second connector. A first retention member is mounted on one of the connectors and is engageable with a second retention member on the other connector in the mating direction. The first retention member includes a flexible engaging portion which extends in a direction generally perpendicular to the mating direction. The second retention member includes a rigid engaging portion for engaging and flexing the flexible engaging portion to hold the connectors in mated condition.

Abstract: A cable connector including a housing with an inserting hole adapted to receive a flat cable including terminals mounted on the housing that has contact parts to be electrically connected to lead wires of the flat cable. The connector includes an actuator having a main body moveable between a first position to enable insertion of the flat cable and a second position, parallel to the direction of insertion-and-extraction of the flat cable, to connect the lead wires of the flat cable to the contact parts. The actuator includes locked portions on opposite sides of the main body and the housing includes locking portions on opposite sides of the housing which are engaged with the locked portions when the actuator is in the second position.

Abstract: A board-to-board connector for mating with another connector has a housing and a plurality of terminals. The terminals and housing interact at a reference surface to accurately locate the terminals relative to the housing. The housing includes an elongated recess that extends parallel to a longitudinal axis of the housing and has a plurality of terminal receiving cavities spaced therealong. Each cavity includes a terminal retention wall with a reference surface on one side thereof and a terminal alignment opening extending from the cavity. Each terminals is disposed in a terminal receiving cavity. Each terminal includes a U-shaped retention portion, an L-shaped resilient contact portion extending from the U-shaped retention portion and has a contact projection thereon. A tail portion for interconnection to a circuit member is also provided.

Abstract: An electrical connector is provided for terminating a flat electrical circuit. The connector includes a dielectric housing having an opening at a front end thereof for receiving an end of the flat circuit. A plurality of terminals are mounted on the housing in a side-by-side array and spaced laterally along the opening. An actuator is movably mounted for pivotal movement between an open position allowing the flat circuit to be inserted into the opening with substantially zero insertion forces, a closed position biasing the flat circuit against contact portions of the terminals and an intermediate position whereat the flat circuit is tentatively held in stable condition while allowing readjustment thereof.

Abstract: An electrical connector is provided for terminating a flat electrical circuit. The connector includes a dielectric housing having an opening at a front end thereof for receiving an end of the flat circuit. A plurality of terminals are mounted on the housing in a side-by-side array and spaced laterally along the opening. An actuator is movably mounted for pivotal movement between an open position allowing the flat circuit to be inserted into the opening with substantially zero insertion forces, a closed position biasing the flat circuit against contact portions of the terminals and an intermediate position whereat the flat circuit is tentatively held in stable condition while allowing readjustment thereof.

Abstract: A board-to-board electrical connector assembly includes a first connector having a dielectric housing for mounting on a first printed circuit board for receiving a plug portion of a second connector mounted on a second printed circuit board. The connectors are mateable in a mating direction. A plurality of first conductive terminals are mounted on the housing of the first connector along the receptacle for engaging a plurality of second conductive terminals mounted along the plug portion of the second connector. A first retention member is mounted on one of the connectors and is engageable with a second retention member on the other connector in the mating direction. The first retention member includes a flexible engaging portion which extends in a direction generally perpendicular to the mating direction. The second retention member includes a rigid engaging portion for engaging and flexing the flexible engaging portion to hold the connectors in mated condition.

Abstract: A shielded electrical connector is provided for terminating a plurality of coaxial cables, each cable including an inner conductor surrounded by a dielectric cover and an outer conductive shield. The connector includes a dielectric housing having a mating end and a terminating end. A plurality of terminals are mounted on the housing and include mating portions located generally at the mating end of the housing and terminating portions terminated to the inner conductors of the cables. A conductive clamp is secured to the housing in clamping engagement with the conductive shields of the cables. A conductive shell is mounted over the housing in engagement with the conductive clamp to electrically couple the cable shields to the shell.

Abstract: A press fit pin of the present invention has a press-fitted region to be press-fitted and connected to a conductive through hole of a printed circuit board or other circuit substrate. The press-fitted region is formed into substantially an M-shape in cross-section, which has two beam-like regions extending substantially in parallel, and a connection region connecting the beam-like regions in a deformable manner. The connection region is formed into such an arcuate shape in cross-section that an upper surface corresponding to a valley side of the M-shape is a concave surface and an opposite lower surface is a convex surface. A part of the upper surface is partially located on the lower surface side with respect to a straight line L connecting left and right inner side continuous portions where the lower surface of the connection region and inner surfaces of the two beam-like regions are continuous to each other.

Abstract: An improved electrical connector has a construction enhancing durability for cable routing.

Abstract: A shielded electrical connector is provided for terminating a plurality of coaxial cables, each cable including an inner conductor surrounded by a dielectric cover and an outer conductive shield. The connector includes a dielectric housing having a mating end and a terminating end. A plurality of terminals are mounted on the housing and include mating portions located generally at the mating end of the housing and terminating portions terminated to the inner conductors of the cables. A conductive clamp is secured to the housing in clamping engagement with the conductive shields of the cables. A conductive shell is mounted over the housing in engagement with the conductive clamp to electrically couple the cable shields to the shell.

Abstract: A press fit pin of the present invention has a press-fitted region to be press-fitted and connected to a conductive through hole of a printed circuit board or other circuit substrate. The press-fitted region is formed into substantially an M-shape in cross-section, which has two beam-like regions extending substantially in parallel, and a connection region connecting the beam-like regions in a deformable manner. The connection region is formed into such an arcuate shape in cross-section that an upper surface corresponding to a valley side of the M-shape is a concave surface and an opposite lower surface is a convex surface. A part of the upper surface is partially located on the lower surface side with respect to a straight line L connecting left and right inner side continuous portions where the lower surface of the connection region and inner surfaces of the two beam-like regions are continuous to each other.

Abstract: An electrical connector and guide bush therefor wherein the guide bush is mounted upon the front of the electrical connector into an aperture in the front face and wherein a shield is mounted onto the front face. The guide bush receives therein a guide pin from a mating electronic component. The guide bush includes an integral body having a head portion and a tail portion. The tail portion may be retainably inserted into the aperture in the front face. The head portion has a bore therein for receiving the guide pin from the mating electronic component. At least one resilient contact member protrudes into the bore for contacting the guide pin of the mating component when the guide pin is received in the bush. The contact established thereby creates a ground circuit therethrough.

Abstract: A connector assembly for an integrated circuit includes two interengaging connector components. One of the components (1) has a chip receiving socket that receives the integrated circuit (41) while the other component (21) has a wire receiving socket that receives at least one array of wires (99). Each component further includes a plurality of conductive terminals (3,23) that engage the integrated circuit or the wires. The terminals of the other component have their contact portions (29) offset. Two of the terminals of the one component are interconnected so they have two contact blades (10) but only one IC engaging contact (8) whereby a single lead (42) of the IC may be electrically joined to a pair of the wires (99), the voided contact spring region being for alignment with a dummy lead of the IC. The terminals (3,23) are formed in a single die and simultaneously inserted into their respective housings in order to simplify the manufacturing process.