Abstract: It is aimed to improve heat dissipation. A joint connector (10) includes busbar terminals (12), a housing (14) and heat dissipation plates (16). The housing (14) includes at least two fittings (30) and a holding portion (32) defining the two fitting portions (30) and holding the busbar terminals (12). The heat dissipation plates (16) are mounted to contact outer surfaces close to the holding portion (32).

Abstract: A connector assembly includes a first connector having a convex portion at a side surface in a direction perpendicular to a direction of connection and a second connector having a concave portion at a side surface in the direction perpendicular to the direction of connection, the convex portion of the first connector being fitted into the concave portion of the second connector to join the first connector and the second connector together, only one of the first connector and the second connector including a floating mechanism that allows floating operations in directions perpendicular to the direction of connection.

Abstract: An electrical connector is provided for terminating a plurality of electrical conductors. The electrical connector includes a terminal subassembly having terminals configured to be electrically connected to the electrical conductors. The terminal subassembly has an insulator holding the terminals. The terminal subassembly has a mating interface where mating surfaces of the terminals mate with a mating connector. The mating interface of the terminal subassembly is approximately flat. The electrical connector also includes a metal shell holding the terminal subassembly. The metal shell has the cross-sectional shape of an oval.

Abstract: A flat cable assembly includes a plurality of power cables and a bonding medium. The plurality of power cables are parallel with each other, wherein every two adjacent power cables are separated from each other. The bonding medium is used for boding every two adjacent power cables together, thereby cooperatively forming the flat cable assembly having a first surface and a second surface. A first gap is formed between the first surface and the bonding medium and a second gap is formed between the second surface and the bonding medium.

Abstract: An electrical connector adapted to mate with a mating connector is provided. The electrical connector includes a housing; a wire dress cover pivotally connected to the housing; and a slide latch pivotally connected to the wire dress cover and slideably connected to the housing. The slide latch has a front end with a hole for snap lock connecting to a lock ramp on the mating connector. The housing includes at least one ramp for moving the front end of the slide latch relative to the lock ramp in response to the slide latch being slid relative to the housing.

Abstract: A electrical connector includes a dielectric housing member for mounting a plurality of terminals. A cover member is engaged with the housing member and combines therewith to define an interior cavity for receiving thereinto a plurality of electrical wires for termination to the terminals. Latches are interengaged between the dielectric housing member and the cover member to hold the members together. The latches include an elongated flexible latch arm projecting from one of the members through the interior cavity into locking engagement with the other member. An open-sided protective silo projects from the one member into the interior cavity alongside the elongated latch arm. The arm is flexible into and out of the open side of the silo. Therefore, the silo protects the elongated flexible latch arm and prevents over-flexing thereof.

Abstract: Starting from a base body (1) and a cover (2) swivel-mounted thereon, enclosing inside the connector itself, wherein the cover (2) incorporates side projections (5) which, in combination with the deformable character of said cover, allow for the unlocking thereof with regard to the body, for the opening and closing thereof, the cover (2) incorporates a safety element (8) materialized in a stiff, U-shaped part, adaptable to the upper portion of the cover in correspondence with the location area of the side projections (5), such that the middle branch of said element (8) can be substantially spaced from the cover (2) in a pre-assembly position, or be adapted to said cover in the working position, in which its side branches (9) penetrate inside the cover (2), internally adapting to the side projections (5), stiffening them to make the accidental opening of the cover impossible. The safety element (8) furthermore incorporates ribs stabilizing it in both the pre-assembly position and working position.

Abstract: The protecting device has a wire passage for wiring the wires led out of the connector. The wire passage includes a first passage part for wiring the wires along a first wiring direction to lead the wires to terminal out of the connector, a second passage part for wiring the wires in a second wiring direction different from the first wiring direction and a third passage part for wiring the wires in a third wiring direction different from the second wiring direction. The third passage part extends in a direction in which the wires are led out of the connector. The protecting device farther has a wire-interference rib formed at a boundary between the second passage part and the third passage part to project in an opposite direction to the direction in which the wires are led out of the connector.

Abstract: An assembly comprising a plastic optical fiber socket attachable to three modules in accordance with JIS standards and a plug; the plastic optical fiber socket including a body having a plug inlet port, a port cover mounted to the body so as to be automatically openable, a receptacle mounted to the body for connection with a plastic optical fiber cable, and a tensile retainer engaged with the body for retaining the plastic optical fiber cable; and the plug including a housing, an engagement portion fixed to the housing for engagement with the receptacle, and a beam formed on the housing, the beam made of elastic material or having an elastic structure.

Abstract: A connector includes a connector portion in which a plurality of connecting terminals respectively connected to wire ends of electric wires are contained, a wire holding tubular part continuously provided at the connector portion for holding portions of the electric wires adjacent to the wire ends, an annular fixing member through which the electric wires are passed, and an elastic fixing member through which the electric wires are passed at a position more close to the wire ends than the annular fixing member. There are provided on inner faces of components of the wire holding tubular part, support rib projections which constitute a circumferential groove for fixing the annular fixing member at a predetermined position and a circumferential groove for locking the elastic fixing member.

Abstract: There is provided a high density electrical connector system including a panel for receiving a plurality of closely spaced elongated connectors. Each connector includes two intermateable halves. One of the connector halves includes an elongated base having wire termination members on one side and associated electrical contacts on the other side. A hood covers the wire termination side of the base. An electrical cable containing a plurality of insulated wires enters on the side of the hood adjacent to a closely spaced adjoining connector at an angle greater than 0° but less than 90° with respect to the base so that the cable will clear the adjoining connector without the need to unduly bend the cable. The top of the hood may be sloped downwardly from its cable receiving side to the opposing side.

Abstract: The present relates to a molding process for, and structural configuration of, a cable assembly. More particularly, the present invention includes a cable assembly including a housing having a conduit and a clam-shell encasement integral with the conduit. The housing defines a passage that extends through the housing. The present invention also includes a method for manufacturing a cable assembly including the steps of forming a housing having a conduit and a clam-shell encasement integral with the conduit. The encasement is movable between an open position and a closed position and the housing defines a passage. The method further includes the steps of disposing a cable in the passage and placing the encasement into its closed position.

Abstract: A cover (8) and strain relief for an electrical cable assembly (1) has a clamping member (11) adjustable in position to clamp against a cable (3) in an opening (9) through the cover (8), an expansible portion (13) of the cover (8) being expansible to fit substantially around an electrical connector (2) terminated to the cable (3), and the clamping member (11) holding onto the expansible portion (13) to resist its expansion away from being substantially around the connector (2).

Abstract: A waterproof structure for an electric wire drawout portion is low in manufacturing cost and enhanced in waterproofness. A cover portion is formed on an end portion of a housing and on this cover portion there is mounted a lower rubber-like elastic member. An upper cover portion is welded to the cover portion by ultrasonic oscillation and on the upper cover portion there is mounted an upper rubber-like elastic member brought into pressure contact with the lower rubber-like elastic member and an electric wire. On the cover portion and the upper cover portion there are integrally formed lower and upper projections exposed on surfaces of the lower and the upper rubber-like elastic member.

Abstract: A bracket assembly is provided which includes a connector housing and a mating bracket housing. The bracket housing mates with the connector housing in a first mode such that the bracket housing may engage the connector housing in a first locked position. The bracket housing may then be pivoted relative to the connector housing such that the bracket housing engages the connector housing in a second locked position. During such pivoting, the bracket housing bends a conductor that is coupled to the connector housing such that a first length of conductor extends in a first direction and a second length of conductor extends at an angle relative to the first length.

Abstract: An electrical connection box assembly which is provided with a projection extending outwardly of the body and located on the front wall at an angle thereto. The projection tapers from its proximal end adjacent the front wall toward the distal end remote therefrom. Thus, after the wire harness is placed in the projection, a tie strap is tightened therearound. The tapered configuration of the projection urges the tie strap toward the retaining element located adjacent the distal end. Thus, the wire harness can be reliably and securely fixed in its desired position.

Abstract: A plug connector includes a housing being made of insulating material and having a lower surface for the passage of plug pins, an upper surface opposite the lower surface, and an open end between the lower and upper surfaces. Contact elements are disposed between the lower and upper surfaces and form plug elements being directed toward the lower surface for connection to leads in the direction of the upper surface. A lead exit duct is disposed in the vicinity of the upper surface and the open end, for routing the leads out of the housing. A closure plate covers the open end of the housing, except for the lead exit duct. The upper surface of the housing has a recess formed therein being open in the direction of the open end of the housing, to permit a lead to exit. As a result, a variable outgoing lead connection is made possible through an angular range of approximately 90.degree. due to a shortened lead exit duct integrated into the housing.

Abstract: A right angle connector includes a fixture for supporting a coaxial cable through a ninety degree angle made in close proximity to the connector. The connector is typically of standard configuration including a contact means, a ferrule, and crimp sleeve positioned within a casing. An engagement means functions to support that portion of the coaxial cable as it bends through the ninety degree angle and may be soldered to the cable.

Abstract: The high-speed electrical transmission cable connector assembly of this invention includes an electrical connector having a connector backshell with an internal cavity for receiving an electrical insert to interface with an electrical interface device. An adequate amount of space is provided by the internal cavity within the backshell for routing wires of the transmission cable through a neck in an entrance side of the backshell to terminate within the insert. The backshell has a truncated side and a short lateral side for saving space and weight of the electrical connector. A grounding terminal is carried within the internal cavity of the backshell adjacent to the neck on a short neck side for grounding wires within a short distance inside the backshell. An attachment and release mechanism is provided for connecting and disconnecting the interface device to the electrical insert within the backshell.

Abstract: A strain relief device for a cable terminating in a plug, an outlet mounted on a base and a connection mechanism to connect said plug to said outlet. The device includes at least one pin extending from the plug, the pin being spaced from the connection mechanism. A block having a receptacle for receipt of the pin is mounted on the base, so that force exerted from the cable is dissipated by the device.

Abstract: An electrical connector assembly includes a metal shell and a plurality of dielectric housings each housing a terminated end of each of a pair of flat cables of the type for transmission of electrical power at substantial current and voltage levels. Each mating terminal pair includes at least one having a contact section having an array of spring arm contact sections deflected by portions of the other when mated. Each termination is proximate a portion of a shell for heat dissipation. One of the shells is adapted for mounting to a bulkhead at a cutout, and the connectors are environmentally sealed to be appropriate for bulkhead mounting. Each connector includes a strain relief assembly suitable for use with flat cables of substantial rigidity and defines a cable exit, all after said terminated cables and housings therearound are assembled into the shell. A jackscrew system is used for facilitating connector mating.

Abstract: An electrical connector assembly includes a metal shell and a plurality of dielectric housings each housing a terminated end of each of a pair of flat cables of the type for transmission of electrical power at substantial current and voltage levels. Each mating terminal pair includes at least one having a contact section having an array of spring arm contact sections deflected by portions of the other when mated. Each termination is proximate a portion of a shell for heat dissipation. One of the shells is adapted for mounting to a bulkhead at a cutout, and the connectors are environmentally sealed to be appropriate for bulkhead mounting. Each connector includes a strain relief assembly suitable for use with flat cables of substantial rigidity and defines a cable exit, all after said terminated cables and housings therearound are assembled into the shell. A jackscrew system is used for facilitating connector mating.

Abstract: An adapter assembly is fastened to a preexisting electrical connector assembly having a pair of cover members defining the cable exit. The adapter assembly includes a pair of clamping members which clamp against the cable jacket for strain relief, and the clamping members are fastened to a mounting member which itself is mounted across the cable exit between inwardly facing surface portions of the cover members and secured by the fasteners which previously secured the cover members to each other. The adapter assembly enables an assured strain relief mechanism for a larger dimensioned cable than that for which the preexisting connector was intended. The mounting member can cooperate with the strain relief surfaces previously defined on the cover members at the cable exit to provide a strain relief slightly compressing the conductors arranged in two bundles passing on either side of the mounting member.