Abstract: A pluggable module includes an outer housing having a cavity between an upper wall and a lower wall. A circuit card is received in the cavity having a card edge configured to be received in a card slot of a communication connector. A circuit card holder engages the circuit card and holds the circuit card in the cavity of the outer housing. The circuit card holder includes a locating fin at a top of the circuit card holder. The locating fin has a sacrificial upper edge configured to engage the outer housing to locate the circuit card holder and the circuit card in the cavity. The sacrificial upper edge is deformed when engaging the outer housing to press the circuit card holder and the circuit card in a downward biasing direction.

Abstract: A power connector includes first and second power terminals having first and second contact stacks and first and second plates for termination to corresponding power element. The contact stacks have contacts separate and discrete from each other and from the plate. Each contact has a base and a mating beam. The bases are aligned and mechanically and electrically coupled to the plate. A housing has an end wall and a fastener that mechanically and electrically couples the bases to the plate. The power terminals are arranged such that the first and second mating beams oppose each other across a mating slot that receives a bus bar with the first mating beams mechanically and electrically engaging a first bus rail at a first side of the bus bar and the second mating beams mechanically and electrically engaging a second bus rail at a second side of the bus bar.

Abstract: A pluggable module includes an outer housing having a cavity between an upper wall and a lower wall. A circuit card is received in the cavity having a card edge configured to be received in a card slot of a communication connector. A circuit card holder engages the circuit card and holds the circuit card in the cavity of the outer housing. The circuit card holder includes a locating fin at a top of the circuit card holder. The locating fin has a sacrificial upper edge configured to engage the outer housing to locate the circuit card holder and the circuit card in the cavity. The sacrificial upper edge is deformed when engaging the outer housing to press the circuit card holder and the circuit card in a downward biasing direction.

Abstract: An electrical cable includes a conductor assembly having conductors and an insulator. The electrical cable includes a cable shield wrapped around the conductor assembly having an inner edge at a first end segment and an outer edge at a second end segment. The second end segment is wrapped over the inner edge and the first end segment to form a flap covering the inner edge and the first end segment. The second end segment forms a void at the inner edge. The electrical cable includes a void shield on the outer surface between the insulator and the cable shield. The void shield extends between a first end and a second end. The void shield is aligned with the void and spans entirely across the void. The cable shield is electrically connected to the void shield.

Abstract: An electrical cable includes a conductor assembly having conductors and an insulator. The electrical cable includes a cable shield wrapped around the conductor assembly having an inner edge at a first end segment and an outer edge at a second end segment. The second end segment is wrapped over the inner edge and the first end segment to form a flap covering the inner edge and the first end segment. The second end segment forms a void at the inner edge. The electrical cable includes a void shield on the outer surface between the insulator and the cable shield. The void shield extends between a first end and a second end. The void shield is aligned with the void and spans entirely across the void. The cable shield is electrically connected to the void shield.

Abstract: A power connector includes first and second power terminals having first and second contact stacks and first and second plates for termination to corresponding power element. The contact stacks have contacts separate and discrete from each other and from the plate. Each contact has a base and a mating beam. The bases are aligned and mechanically and electrically coupled to the plate. A housing has an end wall and a fastener that mechanically and electrically couples the bases to the plate. The power terminals are arranged such that the first and second mating beams oppose each other across a mating slot that receives a bus bar with the first mating beams mechanically and electrically engaging a first bus rail at a first side of the bus bar and the second mating beams mechanically and electrically engaging a second bus rail at a second side of the bus bar.

Abstract: A power connector includes a housing having a first terminal channel and an opening to the first terminal channel. The power connector includes a first power terminal received in the first terminal channel having a base configured to be coupled to a power element and contacts extending from the base for mating with a bus bar. The base is aligned with the opening to receive a fastener. The power connector includes a shroud slidable along the housing between an unactuated position and an actuated position. The shroud exposes the opening and the fastener in the unactuated position and covers the fastener in the actuated position.

Abstract: A connector assembly including an outer housing having a front end, a back end, and a central axis extending therebetween. The outer housing has a passage that extends therethrough. The connector assembly also includes a slidable connector that is disposed within the passage. The slidable connector includes a communication module. The connector assembly also includes a spring frame that is positioned between the slidable connector and the outer housing. Prior to mating with a mating connector, the spring frame mechanically couples the slidable connector with respect to the outer housing. After the mating connector and the communication module are communicatively coupled, the spring frame releases the slidable connector from the outer housing such that the slidable connector is permitted to move relative to the outer housing. The spring frame mechanically couples the slidable connector relative to the mating connector.

Abstract: A housing for an optical connector including a top wall, a bottom wall, a first side wall and a second side wall forming a passageway and a rear opening; a rear portion for receiving a first optical connector; a rectangular opening located on the top wall of the rear portion, wherein the rectangular opening extending from the rear opening along length of the rear portion of the top wall; a rectangular channel located on the bottom wall extending from the rear opening, wherein width of the channel is substantially equal to width of a stop located on distal end of the bottom wall of the connector; and a first notch located on the first side wall and a second notch located on the second side wall, wherein the first and second notches are capable of engaging with projections located on the connector when the connector is inserted into the housing.

Abstract: A housing for an optical connector including a top wall, a bottom wall, a first side wall and a second side wall forming a passageway and a rear opening; a rear portion for receiving a first optical connector; a rectangular opening located on the top wall of the rear portion, wherein the rectangular opening extending from the rear opening along length of the rear portion of the top wall; a rectangular channel located on the bottom wall extending from the rear opening, wherein width of the channel is substantially equal to width of a stop located on distal end of the bottom wall of the connector; and a first notch located on the first side wall and a second notch located on the second side wall, wherein the first and second notches are capable of engaging with projections located on the connector when the connector is inserted into the housing.

Abstract: The invention pertains to an optical coupling method and apparatus in which the connectors are hermaphroditic and each connector comprises a ferrule that provides (1) the coarse alignment of the fibers, (2) the fine alignment of the fibers, and (3) the releasable latching of two such ferrules to each other. Hence, two such ferrules can be used to connect optical fibers without the need for connector housings. The ferrule of this system includes an alignment protrusion and a complementary alignment hole on the front face of the ferrule for providing the fine alignment. Coarse alignment is provided by longitudinally-directed protrusions extending forwardly of the front face, and recesses in the ferrule that are complementary to the protrusion such that two such ferrules can be mated to each other with the protrusions of one such ferrule fitting snugly within the recesses of the other such ferrule.

Abstract: A connector assembly including an outer housing having a front end, a back end, and a central axis extending therebetween. The outer housing has a passage that extends therethrough. The connector assembly also includes a slidable connector that is disposed within the passage. The slidable connector includes a communication module. The connector assembly also includes a spring frame that is positioned between the slidable connector and the outer housing. Prior to mating with a mating connector, the spring frame mechanically couples the slidable connector with respect to the outer housing. After the mating connector and the communication module are communicatively coupled, the spring frame releases the slidable connector from the outer housing such that the slidable connector is permitted to move relative to the outer housing. The spring frame mechanically couples the slidable connector relative to the mating connector.

Abstract: An optical cable assembly is provided for being connected to an opto-electric device assembly having a substrate, an opto-electric device (OED) mounted on the substrate, and a frame mounted on the substrate. The optical cable assembly includes an optical cable including an optical conductor having an end. A ferrule terminates the optical cable. The ferrule includes a body having a chamber. The optical conductor is held by the ferrule such that at least a portion of the end of the optical conductor extends within the chamber of the body of the ferrule. The body of the ferrule is configured to be engaged with and removably connected to the frame of the electro-optical device assembly to optically connect the optical conductor to the OED.

Abstract: The invention pertains to an optical coupling method and apparatus in which the connectors are hermaphroditic and each connector comprises a ferrule that provides (1) the coarse alignment of the fibers, (2) the fine alignment of the fibers, and (3) the releasable latching of two such ferrules to each other. Hence, two such ferrules can be used to connect optical fibers without the need for connector housings. The ferrule of this system includes an alignment protrusion and a complementary alignment hole on the front face of the ferrule for providing the fine alignment. Coarse alignment is provided by longitudinally-directed protrusions extending forwardly of the front face, and recesses in the ferrule that are complementary to the protrusion such that two such ferrules can be mated to each other with the protrusions of one such ferrule fitting snugly within the recesses of the other such ferrule.

Abstract: The invention pertains to an optical ferrule and a method of manufacturing the optical ferrule that can compensate for the fact that the end faces of the fibers contained in the ferrule initially may not be coplanar of each other within required or desired tolerances or otherwise not the exact correct length. Particularly, a cavity is provided within the ferrule to provide room for the fibers to freely bend within at least a range of curvatures within the ferrule so that any difference in the lengths of the fibers can be compensated for by a unique amount of bend in each individual fiber.

Abstract: A fiber optic connector assembly includes a coupling interface component, a connector housing, and an optical fiber connector. The coupling interface component extends along a center axis from a back end to a coupling end and includes an interior chamber. The connector housing is disposed within the interior chamber of the coupling interface component. The optical fiber connector is joined to an optical fiber and is interconnected with the connector housing. The optical fiber connector is configured to optically couple the optical fiber with a mating connector. The coupling interface component engages the connector housing and the mating connector and prevents movement of the connector housing relative to the coupling interface component and the mating connector.

Abstract: A fiber optic connector assembly includes a connector housing, a connector base, and an optical fiber connector. The connector housing extends along a center axis from a mating end to a cable receiving end with a passage extending therebetween. The mating end is received in a mating connector that is mounted to a panel. The connector base is secured to the mating end of the connector housing and includes a channel extending therethrough. The channel receives an optical fiber. The optical fiber connector is coupled to the optical fiber and mates with the mating connector to optically couple the optical fiber with the mating connector. The optical fiber connector is slidably joined to the connector base to permit the optical fiber connector to axially move along the center axis relative to the connector housing when the connector housing mates with the mating connector.

Abstract: A secure transceiver system for use with a connector system comprising a set of plugs, each plug having a housing having a front and back orientation and having a front face defining an opening, said ferrule being disposed within said opening, said housing defining a first keying element on said front face around said opening, said keying element for each plug of said set of plugs being different; said secure transceiver system comprising: a set of transceivers, each transceiver having a different receptacle, each receptacle having an opening to receive said plug and a ferrule-receiving portion to receive said ferrule, said ferrule-receiving portion defining a second keying element to cooperate with said first keying element, said second keying element for each receptacle being different and being adapted to cooperate with one and only one of said first keying elements, wherein plugs and receptacles having keying elements that cooperate are mating pairs.

Abstract: An attenuator connector comprising a housing having a front and rear orientation, a ferrule disposed in the housing, a clamping assembly disposed in the housing rearward of the ferrule and adapted to receive and retain a terminating fiber and a stub of attenuating fiber disposed in the ferrule.

Abstract: A secure transceiver system for use with a connector system comprising a set of plugs, each plug having a housing having a front and back orientation and having a front face defining an opening, said ferrule being disposed within said opening, said housing defining a first keying element on said front face around said opening, said keying element for each plug of said set of plugs being different; said secure transceiver system comprising: a set of transceivers, each transceiver having a different receptacle, each receptacle having an opening to receive said plug and a ferrule-receiving portion to receive said ferrule, said ferrule-receiving portion defining a second keying element to cooperate with said first keying element, said second keying element for each receptacle being different and being adapted to cooperate with one and only one of said first keying elements, wherein plugs and receptacles having keying elements that cooperate are mating pairs.