Abstract: A method for securing a fiber optic component includes: providing a holding medium having a tack and mounted on a substrate; and placing the fiber optic component in intimate contact with the holding medium to thereby secure the fiber optic component to the substrate. The tack of the holding medium releasably bonds the fiber optic component to the holding medium and the holding medium retains its tack upon removal of the fiber optic component to permit re-placement of the fiber optic component or placement of a further fiber optic component on the holding medium to secure said fiber optic component or further fiber optic component to the substrate.

Abstract: A method for securing a fiber optic component includes: providing a holding medium having a tack and mounted on a substrate; and placing the fiber optic component in intimate contact with the holding medium to thereby secure the fiber optic component to the substrate. The tack of the holding medium releasably bonds the fiber optic component to the holding medium and the holding medium retains its tack upon removal of the fiber optic component to permit re-placement of the fiber optic component or placement of a further fiber optic component on the holding medium to secure said fiber optic component or further fiber optic component to the substrate.

Abstract: A method for securing a fiber optic component includes: providing a holding medium having a tack and mounted on a substrate; and placing the fiber optic component in intimate contact with the holding medium to thereby secure the fiber optic component to the substrate. The tack of the holding medium releasably bonds the fiber optic component to the holding medium and the holding medium retains its tack upon removal of the fiber optic component to permit re-placement of the fiber optic component or placement of a further fiber optic component on the holding medium to secure said fiber optic component or further fiber optic component to the substrate.

Abstract: A method for securing a fiber optic component includes: providing a holding medium having a tack and mounted on a substrate; and placing the fiber optic component in intimate contact with the holding medium to thereby secure the fiber optic component to the substrate. The tack of the holding medium releasably bonds the fiber optic component to the holding medium and the holding medium retains its tack upon removal of the fiber optic component to permit re-placement of the fiber optic component or placement of a further fiber optic component on the holding medium to secure said fiber optic component or further fiber optic component to the substrate.

Abstract: A method for securing a fiber optic component includes: providing a holding medium having a tack and mounted on a substrate; and placing the fiber optic component in intimate contact with the holding medium to thereby secure the fiber optic component to the substrate. The tack of the holding medium releasably bonds the fiber optic component to the holding medium and the holding medium retains its tack upon removal of the fiber optic component to permit re-placement of the fiber optic component or placement of a further fiber optic component on the holding medium to secure said fiber optic component or further fiber optic component to the substrate.

Abstract: A sealing assembly for forming a seal about an elongate object includes a resilient seal member and a loading mechanism. The resilient seal member includes an inner wall surface defining a channel to receive the elongate object. The seal member has first and second opposed sides. The loading mechanism includes a first pressure member on the first side of the seal member; a second pressure member on the second side of the seal member; a biasing member on the second side of the seal member and interposed between the seal member and the second pressure member; and an adjustable displacement mechanism accessible and operable from the first side of the seal member to displace the first and second pressure members relative to one another to selectively apply a compressive load to the seal member such that the inner wall surface is expanded inwardly to exert a sealing pressure on the elongate object.

Abstract: A sealing assembly for forming a seal about an elongate object includes a resilient seal member and a loading mechanism. The resilient seal member includes an inner wall surface defining a channel to receive the elongate object. The seal member has first and second opposed sides. The loading mechanism includes a first pressure member on the first side of the seal member; a second pressure member on the second side of the seal member; a biasing member on the second side of the seal member and interposed between the seal member and the second pressure member; and an adjustable displacement mechanism accessible and operable from the first side of the seal member to displace the first and second pressure members relative to one another to selectively apply a compressive load to the seal member such that the inner wall surface is expanded inwardly to exert a sealing pressure on the elongate object.

Abstract: A sealant-filled connector assembly for use with a connector plug includes a connector housing including a unitary body portion defining a body cavity and at least one conductor passage extending through the unitary body portion and communicating with the body cavity. The connector housing defines a connector opening communicating with the body cavity. The connector opening is adapted to receive the connector plug. An electrical conductor extends through the at least one conductor passage and has a contact portion disposed in the body cavity. An environmental sealant is disposed in the body cavity up to a sealant fill level and at least partially covering each the contact portion. The unitary body portion is devoid of openings other than the at least one conductor passage up to at least the sealant fill level.

Abstract: A sealant-filled connector assembly for use with a connector plug includes a connector housing including a unitary body portion defining a body cavity and at least one conductor passage extending through the unitary body portion and communicating with the body cavity. The connector housing defines a connector opening communicating with the body cavity. The connector opening is adapted to receive the connector plug. An electrical conductor extends through the at least one conductor passage and has a contact portion disposed in the body cavity. An environmental sealant is disposed in the body cavity up to a sealant fill level and at least partially covering each the contact portion. The unitary body portion is devoid of openings other than the at least one conductor passage up to at least the sealant fill level.

Abstract: A splicing enclosure is comprised of a base portion and a lid portion, with a grounding contact positioned in both halves. The grounding contacts include a plurality of grounding contact portions to receive shielded cable in a transverse relation thereto. The enclosure is provided with a removable ferrule, which can be slidably received between the shielding and inner sheath of a shielded cable to enhance the strain relief on the cable between the cable and the grounding contact. The grounding contact is designed so as to accommodate a plurality of shielded cable configurations. The enclosure is also provided with a progressive latch, which cooperates upon rotation of the lid relative to its base portion to take off the load from the integrated hinge to prevent breakage of the hinge.

Abstract: A splicing enclosure is comprised of a base portion and a lid portion, with a grounding contact positioned in both halves. The grounding contacts include a plurality of grounding contact portions to receive shielded cable in a transverse relation thereto. The enclosure is provided with a removable ferrule, which can be slidably received between the shielding and inner sheath of a shielded cable to enhance the strain relief on the cable between the cable and the grounding contact. The grounding contact is designed so as to accommodate a plurality of shielded cable configurations. The enclosure is also provided with a progressive latch, which cooperates upon rotation of the lid relative to its base portion to take off the load from the integrated hinge to prevent breakage of the hinge.

Abstract: This invention provides a seal retention member (21,66) for use in an electrical connector. The seal retention member (21,66) has a plurality of wire receiving passages (37) and a latch arm (90) which forms part of a peripheral surface (86) and part of at least one of the wire receiving passages (37).

Abstract: The present invention provides a pair of keyed secondary lock members (30,50) which are insertable into respective plug and receptacle housings (22,42). Each secondary lock member (30,50) features a plurality of locking projections (31) extending into the respective housing (22,42) for engaging terminal locking fingers (55). Latches (34,52) are provided for securing the secondary lock members (30,50) in both a pre-latched and a locked position. Each secondary lock member (30,50) also features a terminal shroud area (33,51) which are keyed to each other and provide shock protection when the connectors are in an unmated condition.

Abstract: A retaining nut for securing an electrical connector to the surface of a an electrical panel or bulkhead. It has an annular ring having an upper surface, a lower surface and a central bore defining an inner periphery around an inside diameter of the ring. Several flexible, spring fingers are positioned around the inner periphery of the ring and project into the central bore. Preferably the fingers are helically arranged around the inside of the ring. Several upright posts positioned around and projecting outwardly perpendicularly from the upper surface of the ring aid manual insertion and removal of the nut. In use a cylindrical shaft having external threading around an outer circumference thereof positioned through the opening of a flat sheet panel. The a retaining nut is seated on the flat sheet and attaches to the shaft by means of the fingers engaging the external threading.

Abstract: An enclosure (400,500) having a pair of covers fastenable together to close about and seal a cable splice between end portions of a pair of multiconductor cables. At least one routing channel (418 or 420;528) is provided at a first end (406,506) and a single routing channel (424;536) at the second end (408,508), with a splice-receiving region (454) provided adjacent inner ends of the routing channels. Axially- and laterally-staggered outermost and innermost embossments are associated with each routing channel to establish an interruption in a linear path between the cable exits and a grounding region for the multiconductor shielded cables, so that the cables must be substantially bent to course around the embossments in serpentine fashion, defining cable strain relief. A partitioned region (552) in enclosure (500) accommodates receipt of a spliced connection of a pair of single-conductor coaxial cables into a linear routing channel bypassing the grounding region for multiconductor shielded cables.