Abstract: A connector is disclosed for use in automotive applications, which has improved retention capabilities. The connector includes a body portion that supports an array of conductive terminals. An outer housing is molded over the body portion and the terminal termination area to form an exterior protective housing of the connector. The protective housing of the connector is provided with a pair of engagement arms formed on the exterior of the protective housing. The arms are connected to the housing at their opposite ends and are formed with an intervening space between them and the housing. The space is configured to provide an outward bias force on the engagement arms such that when the connector is inserted into a receiving frame, the engagement arms are biased outwardly to press against sidewalls of the receiving frame and retain the connector in place therein without the need for additional latches or O-rings.

Abstract: The connector of the Present Disclosure for a flexible circuit cable comprises a housing on the front whereof is formed an insertion slot for a flexible circuit cable, and on the front and rear whereof is formed a terminal insertion hole; a plurality of contact terminals inserted into the front and rear of the housing via the terminal insertion holes; an actuator that pivots around a pivot axis and, when in closed position, creates electrical contact between the contact terminal and the conductor part of the flexible circuit cable by pressing the inserted flexible circuit cable down and into the housing; and a molded dust cover that pivots with the actuator and is installed on the housing to enable rotation and thus prevent the introduction of dust; and has a structure wherein on either end part of the molded dust cover is formed a rotation axis groove, and rotation axis projections are formed on either side of the housing to enable coupling with the rotation axis grooves.

Abstract: A connector, in which each conductive pattern includes a plate-like terminal engaging a protruding terminal on the other connector. The plate-like terminal includes a protruding terminal receiving opening for receiving the protruding terminal, a beam-like first terminal member positioned to the side of the protruding terminal receiving opening, and a first contact portion formed in the first terminal member. The first terminal member generates spring force towards the center of the connector in the lateral direction when the protruding terminal received inside the protruding terminal receiving opening moves relative to the first contact portion.

Abstract: Modular connectors are provided that have a modular receptacle connector assembly matable with a modular plug connector assembly for connecting AC or DC power connectors and electrical signals including board-to-board and wire-to-board connection. Provided is a “pass through” modular component to facilitate connection and disconnection of only the power supply for service without disconnecting the entire system. The wire connector also may load to the main housing thus obviating the need for a panel mount. Also provided is a one-unit modular connector system with either a coplanar or a right-angle design. Furthermore, multiple AC and/or DC power supplies can be provided that utilize minimum board space.

Abstract: An optical fiber cable assembly includes an optical fiber cable, an optical fiber connector, and a strain relief member. The optical fiber connector has a housing with at least two ferrules supporting a plurality of optical fibers of the cable. Each ferrule has at least two ribbons of optical fibers therein. The strain relief member has a flexible corrugated conduit. A method is also disclosed.

Abstract: An optical fiber cable assembly includes an optical fiber cable, an optical fiber connector and a strain relief member. The optical fiber connector has a housing supporting a plurality of optical fibers of the cable. The strain relief member has a flexible conduit, a first section and a second section spaced from the first section. The first section is connected to a rear end of the optical fiber connector and the second section is connected to a portion of the optical fiber cable.

Abstract: A shield is provided for use with a connector assembly that includes for sides that form an enclosure, one of the sides being a baseplate. The shield can include a plurality of guides positioned on the baseplate and the plurality of guides can be arranged in a pattern. Each guide can he formed by making two slits in the bottom plate so as to define a body portion of the guide and the body portion can be extended in the enclosure. Each guide can be supported by the baseplate at opposite ends of the body portion.

Abstract: A holder is provided that include a base with an aperture. An LED array with an LED emitter can be positioned so that the LED emitter is in the aperture. The holder includes pads that can be soldered to surface contacts on the LED array. The holder further includes contacts that are electrically connected to the pads. The pads and contacts can be provided by terminals that insert molded into the base. The base can include an integrated connector that has the contacts of the terminals extend therein.

Abstract: An electrical connecting device includes an electrical connecting member including an electrical connecting element and a removable component connecting to the electrical connecting element. The electrical connecting element includes a base portion extending on a plane, two connecting portions formed on the base portion, and an arm portion extending between the two connection portions. The removable component includes a plurality of finger portions each connecting to one connecting portion of each adjacent electrical connecting element at a connection that is configured to be breakable. A supporting element respectively extend from the end portions of two outermost ones of the finger portions of the comb element and extend adjacent to the plane and beside the arm portions of the electrical connecting elements.

Abstract: A receptacle connector defines a port. The port is provided with spring fingers that are configured to engage a mating module. The spring fingers are thermally coupled to a heat transfer plate that can be configured to provide part of a cage that defines the port. Fins can be mounted on or integrated into the heat transfer plate. In operation, thermal energy from an inserted module is transferred from the module to spring fingers and then to the heat transfer plate and then to a thermal dissipation system.

Abstract: A connector includes a housing and at least one terminal. The at least one terminal comprises a base portion, two attaching portions and an elastic arm portion. The two attaching portions are configured to have a height different from that of the base portion and are attached to the housing. The two attaching portions of each terminal can be disposed adjacent to the corresponding end portion of the housing and respectively on opposite sides of the corresponding opening.

Abstract: A connector has a housing and two edge card-receiving slots disposed in a stacked arrangement on a first face of the housing. The housing supports a plurality of wafers, each wafer supporting a plurality of terminals and including two grooves, the grooves aligned with the terminals supported by the wafer. The housing may be positioned in a cage that includes receptacles on a front face of the cage. A light pipe may extend toward the front face of the cage.

Abstract: A connector includes a heat spreader. The heat spreader is configured to direct heat from ports to a thermal plate that is spaced apart from the connector. A plurality of connectors can be supported and a heat spreader can be associated with each connector. One or more thermal plates can be thermally coupled to the corresponding heat spreader(s) so as to direct thermal energy away from each connector. Cold blocks can be used to thermally couple the heat spreader to the corresponding thermal plates.

Abstract: The Present Disclosure has the effect of maximizing space utilization in the internal space of the socket during mounting/unmounting. In addition, the Present Disclosure enables attachment/removal within a minimal space, because the extraction stroke for a first memory card is so short. Also, the Present Disclosure can reduce the total socket height because the second memory card contact terminal and the first memory card contact terminal alignments do not overlap. Furthermore, the Present Disclosure has the advantage that cellular telephone OS errors do not occur, because the second memory card cannot be removed at will when the mobile communication terminal is powered on, with battery installed.

Abstract: A connector system is configured for macro motion. Two mating terminals are configured so that during macro motion cycles, the resistance between two terminals does not substantially increase. One terminal can have multiple, somewhat spherical-shaped mating surfaces while a mating surface on the other terminal can be flat. The mating terminals can be configured to provide desirable resistance performance after more than 5000 cycles of macro motion.