Abstract: The method and apparatus is provided for sealing a splice in an electrical cable. A pair of spaced-apart sealing dams are formed about the electrical cable with the splice being located therebetween. A generally cylindrical splice enclosing shell, having a pair of opposed open ends is supported around the splice. The shell includes plural shell fingers extending from each end of the shell. The shell fingers are secured to each other at a location outwardly adjacent of the sealing dams to positionally confine the sealing dams, preventing outward migration thereof. The splice may be encapsulated with an encapsulant under pressure, which is retained by the splice enclosing shell.

Abstract: A method for terminating an electrical conductor, comprises an outset step of defining a housing having an open end and a closed end and at least one passage therethrough for entry of the conductor into the housing to permit a termination end of the conductor to be resident interiorly in the housing. Next, the housing passage is closed and the housing is disposed with the housing open end vertically above the housing closed end. With the housing so disposed, sealant gel is introduced in liquid state interiorly of the housing. While the sealant gel is in the liquid state, there is secured with the housing, through the housing open end, apparatus for subsequent use in terminating the conductor, Upon transition of the sealant gel to a cured state, the housing passage is opened. To complete the conductor terminating method, at the installation site, the conductor is inserted into the housing passage and into registry with the terminating apparatus.

Abstract: An electrical cable assembly includes a plurality of electrical conductors supported within an insulative casing. The conductors are arranged in side-by-side transversely spaced position and the casing surrounds and electrically isolates each of the conductors. The casing includes a major planar surface permitting mass termination to a connector. One of the conductors includes a flat surface portion which faces an adjacent one of the side-by-side conductors and also includes a curved surface portion which faces the major planar surface.

Abstract: A method of forming an electrical cable assembly includes providing a plurality of round electrical conductors. One of the conductors is flattened along a longitudinal surface portion. The conductors are arranged in side-by-side transversely spaced position with the flattened portion of the one conductor facing an adjacent conductor. An insulative casing is extruded about the conductors and includes a major planar surface permitting mass termination to a connector. The one conductor includes a curved surface portion which faces the major planar surface.

Abstract: A strippable, shielded electrical cable comprises a plurality of elongate, parallel-spaced electrical conductors encased in a casing of electrical insulation. At least one of the conductors, preferably located at a position other than at the marginal ends of the cable has an exposed portion free of casing material. An electrically conductive wire mesh shield overlies the casing and is in electrical contact with the exposed conductor portions. A top layer of electrical insulation overlies the wire mesh shield. A release sheet of electrical insulation is disposed between the conductive shield and the cover layer. A first adhesive is on the lower surface of the sheet facing the shield, the first adhesive being removably adhered to the metallic wire mesh shield. The first adhesive and a portion of the casing material are removably adhered to each other through the interstitial openings of the wire mesh.

Abstract: The flat multiconductor cable contains live, neutral and ground conductors lying generally parallel to each other and in side by side, single-plane relation. The live and neutral conductors are sealably surrounded by a relatively hard, polyetherimide material that is substantially free from attack from calcium hydroxide. An outer jacket or casing of polyvinylchloride (PVC) sealably surrounds the polyetherimide layers and contacts the ground conductor. The PVC is substantially free from attack in an alkaline environment. As such, the cable construction provides an enhanced resistance to puncture, particularly in alkaline environments which may be encountered in undercarpet wiring system applications.

Abstract: The flat multiconductor cable contains live, neutral and ground conductors lying generally parallel to each other and in side by side, single-plane relation. The live and neutral conductors are sealably surrounded by a relatively hard, polyetherimide material that is substantially free from attack from calcium hydroxide. An outer jacket or casing of polyvinylchloride (PVC) sealably surrounds the polyetherimide layers and contacts the ground conductor. The PVC is substantially free from attack in an alkaline environment. The polyetherimide layers are extruded over the live and neutral conductors providing a seal therearound and thereby a barrier to moisture. The PVC layer is then extruded over the conductors providing a further seal around the polyetherimide layers.