Abstract: A connector receptacle comprises a housing having a forward mating end and a rear end, with an internal surface provided within the housing facing toward the rear end. The internal surface comprises at least a one alignment structure to engage and thereby maintain one or more optical elements in horizontal and vertical alignment. A clip having at least one retention mechanism engages complementary features on the housing to thereby retain the clip in fixed alignment with the housing. The clip also comprises at least one resilient member to bias the at least one optical element into mating engagement with the one or more alignment structures. Where the housing and clip are fabricated from electrically conductive materials, the clip may comprise one or more corresponding continuity pins to be received in continuity slots of the housing. Features of the clip to accommodate either surface mounting or through-hole mounting configurations are provided.

Abstract: An interconnect system includes a transceiver module assembly that is mountable in an industrial receptacle. The receptacle mates to an industrial optical connector to form an environmentally sealed connection. The receptacle has an interior passageway and mating means for attaching the module assembly. The module assembly includes a spring-loaded module cage for receiving active devices, such as SFP transceivers. The spring-loaded module cage can adjust its position within the receptacle to accommodate different type of modules from various vendors. When attached to the platform, the module assembly is positioned so that the cage's open end is accessible through the receptacle's passageway. Users have the option of plugging/unplugging the transceiver module either through the passageway or by removing the module assembly from the receptacle.

Abstract: An adapter is mountable to a bulkhead, panel, circuit box, circuit board or other substrate, and receives a fiber optic connector. The adapter can be swiveled or rotated relative to the bulkhead, panel, circuit box, circuit board or other substrate, thereby providing for enhanced cable management. The adapter may include a gasket that reduces electromagnetic interference (EMI).

Abstract: A fiber optic connector module includes a ferrule terminated to at least one optical fiber. The ferrule has a rearwardly facing abutment surface. The ferrule is mounted within a housing which includes a forwardly facing abutment surface for engaging the rearwardly facing abutment surface on the ferrule. The forwardly facing abutment surface on the housing is convexly rounded so that the ferrule can tilt relative to the housing.

Abstract: A system is provided for mounting a connecting device to a substrate. A connector housing is located at one side of the substrate, and a threaded fastening nut is engaged on the housing. A threaded fastener is engaged with the opposite side of the substrate and extends therethrough for tightening the nut toward the substrate in response to rotating the fastener. An assembly tool holds the fastening nut against rotation as the fastener is rotated. The tool includes a first portion for engaging at least a part of the housing to properly position the tool. A second portion of the tool engages the fastening nut to prevent rotation thereof. The second portion of the tool is aligned with the fastening nut automatically in response to engaging the first portion with the housing.

Abstract: A fiber optic connector assembly includes an outer housing having an interior cavity. A termination module is insertable into the cavity and includes a ferrule for terminating a distal end of at least one optical fiber stub. A base is attached to the ferrule and includes a channel for splicing a proximal end of the optical fiber stub to a fiber end of a fiber optic cable. A cover is positionable onto the base for holding the fiber stub and fiber end in the channel. A clamp is provided for holding the cover onto the base. A latch is provided between the clamp and the outer housing for holding the termination module in the cavity of the housing.

Abstract: A fiber optic connector module includes a ferrule terminated to at least one optical fiber. The ferrule has a rearwardly facing abutment surface. The ferrule is mounted within a housing which includes a forwardly facing abutment surface for engaging the rearwardly facing abutment surface on the ferrule. The forwardly facing abutment surface on the housing is convexly rounded so that the ferrule can tilt relative to the housing.

Abstract: An adapter assembly is provided for mounting in an opening in a panel. The assembly includes a housing mountable in the opening and including a pair of housing halves. A first housing half projects from one side of the panel and has a first receptacle for receiving a connector. The first housing half is fabricated of plastic material to withstand repeated insertions of the connector into the receptacle. A second housing half projects from an opposite side of the panel and has a second receptacle for receiving a complementary connecting device for mating with the connector within the adapter assembly. The second housing half is fabricated of metal material to provide EMI protection at the opening in the panel.

Abstract: A system is provided for mounting a connecting device to a substrate. A connector housing is located at one side of the substrate, and a threaded fastening nut is engaged on the housing. A threaded fastener is engaged with the opposite side of the substrate and extends therethrough for tightening the nut toward the substrate in response to rotating the fastener. An assembly tool holds the fastening nut against rotation as the fastener is rotated. The tool includes a first portion for engaging at least a part of the housing to properly position the tool. A second portion of the tool engages the fastening nut to prevent rotation thereof. The second portion of the tool is aligned with the fastening nut automatically in response to engaging the first portion with the housing.

Abstract: A fiber optic connector module includes a ferrule terminated to at least one optical fiber. The ferrule has a rearwardly facing abutment surface. The ferrule is mounted within a housing which includes a forwardly facing abutment surface for engaging the rearwardly facing abutment surface on the ferrule. The forwardly facing abutment surface on the housing is convexly rounded so that the ferrule can tilt relative to the housing.

Abstract: An adapter assembly is provided for mounting in an opening in a panel. The assembly includes a housing mountable in the opening and including a pair of housing halves. A first housing half projects from one side of the panel and has a first receptacle for receiving a connector. The first housing half is fabricated of plastic material to withstand repeated insertions of the connector into the receptacle. A second housing half projects from an opposite side of the panel and has a second receptacle for receiving a complementary connecting device for mating with the connector within the adapter assembly. The second housing half is fabricated of metal material to provide EMI protection at the opening in the panel.

Abstract: A fiber optic connector assembly includes an outer housing having an interior cavity. A termination module is insertable into the cavity and includes a ferrule for terminating a distal end of at least one optical fiber stub. A base is attached to the ferrule and includes a channel for splicing a proximal end of the optical fiber stub to a fiber end of a fiber optic cable. A cover is positionable onto the base for holding the fiber stub and fiber end in the channel. A clamp is provided for holding the cover onto the base. A latch is provided between the clamp and the outer housing for holding the termination module in the cavity of the housing.

Abstract: A fanout connector is provided for a fiber optic cable including a plurality of optical fibers. The connector includes a housing means having a passage for receiving the fiber optic cable transversely along an axis. A fanout member in the housing spreads the individual optical fibers of the cable transversely of the axis. At least one frangible mounting member is provided on the housing means for mounting the connector on an appropriate support structure. The mounting member is readily breakable from the housing when the connector is to be used as a stand-alone unit. The housing includes a base and a cover with complementary interengaging polarizing members between the base and the fanout member. The cover has a transparent window to afford visual inspection of at least a portion of the cable within the housing.

Abstract: A method and apparatus are provided for cross-connecting the individual optical fibers of a plurality of fiber optic ribbons. A plurality of individual optical fibers are routed onto a substrate to form at least one first optical ribbon. The individual fibers are reorganized on the substrate to form a plurality of second fiber optic ribbons. A plurality of individual dummy optical fibers are routed onto the substrate to increase the number of individual optical fibers of the second fiber optic ribbons without including the dummy optical fibers in the at least one first fiber optic ribbon.

Abstract: A method and apparatus are provided for cross-connecting the individual optical fibers of a plurality of fiber optic ribbons. A plurality of individual optical fibers are routed onto a substrate to form at least one first optical ribbon. The individual fibers are reorganized on the substrate to form a plurality of second fiber optic ribbons. A plurality of individual dummy optical fibers are routed onto the substrate to increase the number of individual optical fibers of the second fiber optic ribbons without including the dummy optical fibers in the at least one first fiber optic ribbon.

Abstract: A fiber management system is provided for a plurality of optical fibers which project beyond an end of a dielectric of a fiber optic cable. The system includes a support secured to the dielectric of the cable. A plurality of tubes are fixed to the support and extend away from the end of the dielectric, with the fibers positioned within the tubes.

Abstract: An optical fiber interconnection apparatus includes a flat flexible body member defined by a peripheral edge void of any projections. A plurality of optical fibers are mounted to the body member so that their ends extend beyond the peripheral edge and the ends of a plurality of the fibers extend to different locations of the edge. A method of fabricating the interconnection apparatus includes providing a flat release substrate onto which the flat flexible body member is adhered. After the optical fibers are mounted to the body member, the assembly of the body member and fibers are peeled off of the release substrate.

Abstract: A fanout connector assembly is provided for fiber optic cables each including a plurality of optical fibers. The assembly includes at least two fanout connectors each having a housing with a passage for receiving a fiber optic cable along an axis. A fanout member in the housing spreads the individual optical fibers of the cable transversely of the axis. Complementary interengaging stacking members on the housings of the two connectors align and hold the connectors in stacked relationship with one connector on top of the other connector. An individual connector includes a base housing and a cover with complementary interengaging strain relief members and complementary interengaging latch members therebetween. The strain relief members and the latch members are respectively interengaged automatically in response to mounting the cover on the base housing, but the strain relief members are at least partially interengaged prior to interengagement of the latch members.

Abstract: A connector is provided for a fiber optic cable which includes a plurality of optical fibers. The connector includes a base housing having a through passage for receiving the cable and fibers along an axis. A receptacle in the housing communicates with the passage and is open-sided transversely of the axis. A fanout insert is positionable into the receptacle and receives and spreads the individual fibers of the cable transversely of the axis. A cover is slidably mounted on the base housing in a direction generally parallel to the axis. Guide ribs and guide rails are provided between the base housing and the cover to guide the cover to a closed position. Complementary interengaging strain relief members are provided on the base housing and cover for embracing the fiber optic cable automatically in response to slidably mounting the cover onto the base housing.

Abstract: A fiber management system is provided for a plurality of optical fibers which project beyond an end of a dielectric of a fiber optic cable. The system includes a support secured to the dielectric of the cable. A plurality of tubes are fixed to the support and extend away from the end of the dielectric, with the fibers positioned within the tubes.