Abstract: A cable connector retaining system includes a cable connector retaining assembly having a connector block and a movable retention block with a connector retention fastener, e.g., a threaded fastener. The system also includes a plate having a connector mounted thereon and a connector retention feature, e.g., a threaded hole, positioned adjacent to the connector. The connector block has a connector housed in an overmold jacket and connectable to the plate's connector. The connectors may be USB-type connectors, for example. The retention block is movably mounted to the connector block's overmold jacket so that the retention block's connector retention fastener may be aligned with the plate's connector retention feature. Once aligned, the connector retention fastener may be engaged with the connection retention feature. Movement of the retention block allows a single cable connector retaining assembly to be used for multiple plate configurations (i.e., with the connector retention feature at different positions).

Abstract: A cable connector retaining system includes a cable connector retaining assembly having a connector block and a movable retention block with a connector retention fastener, e.g., a threaded fastener. The system also includes a plate having a connector mounted thereon and a connector retention feature, e.g., a threaded hole, positioned adjacent to the connector. The connector block has a connector housed in an overmold jacket and connectable to the plate's connector. The connectors may be USB-type connectors, for example. The retention block is movably mounted to the connector block's overmold jacket so that the retention block's connector retention fastener may be aligned with the plate's connector retention feature. Once aligned, the connector retention fastener may be engaged with the connection retention feature. Movement of the retention block allows a single cable connector retaining assembly to be used for multiple plate configurations (i.e., with the connector retention feature at different positions).

Abstract: An electrical connector for computer cabling or similar types of cabling wherein data signals are transmitted over the cables is described and illustrated as having a ferrite electro-magnetic interference suppressor element surrounding the conductors of the cable and all of which are enclosed and incorporated within the connector assembly. The enclosure and incorporation of the ferrite suppression element within the connector assembly greatly improves the performance of the ferrite device while, at the same time, permitting the use of space within the connector assemblies which otherwise might be wasted or unused. The incorporation of the ferrite device into the housing permits the placement of the ferrite device at the optimum location for electro-magnetic interference suppression.

Abstract: A connector is shown for an electrical cable which includes a connector body having oppositely disposed outer walls connected by a pair of oppositely arranged end walls. The outer walls and end walls terminate in a rear wall which together define an enclosure including an internal chamber for receiving an electrical connector element. The oppositely disposed outer walls are provided with bevelled front surfaces which extend from a point co-planar with the remaining outer wall surface inwardly with respect to the internal chamber opening, thereby providing greater visibility of any electrical connector element located within the internal chamber to prevent mis-alignment of connector elements during connection operations.

Abstract: An electrical connector having a housing and a swivel member. The housing defines an opening and the swivel member defines a cable passageway. The swivel member is configured so that an electrical cable may be disposed through the cable passageway and the opening. The swivel member is pivotally mounted to the housing such that, when an electrical cable is disposed in the passageway, the cable may pivotally move with respect to the housing.