Abstract: An electric wire work is produced in the following manner. That is, a combination of a plurality of coaxial cables are cut to a predetermined length. External conductors are exposed in the vicinity of the ends thereof. The external conductors is fixed at a predetermined pitch with a ground bar. Insulators are exposed outside the ground bar. The plurality of insulated cores are fixed at a predetermined pitch with a plastic tape. Then, the insulator layers are shifted together with the plastic tape at a point between the ground bar and the plastic tape so that core conductors 7 are exposed.

Abstract: An enhanced electrical harness arrangement for an aircraft engine that is arranged to provide optimum protection of the electrical conductors from extreme thermal, EMI, vibration and chafing problems encountered in service. The harness arrangement provides a high degree of repairability thereby ensuring a long service life for the harness wile also minimizing the time required for necessary repairs to the electrical conductor terminals. A repair splice member has an electrical conductor bundle inserted through it and is spaced from a connection of the electrical conductor bundle to an aircraft gas turbine engine.

Abstract: An improved automatic length-adjusting end fitting for a cable assembly consisting of a conduit and a wire slidably positioned therein reacts to increases in the length of the wire and/or decreases in the length of the conduit by automatically lengthening the conduit to thereby take up a portion of the slack in the wire and return the cable assembly to its desired condition. The fitting includes a hollow housing and a cylindrical core disposed therein for sliding and rotating movement with respect to the housing. The conduit is connected to the end of the core and the wire extends completely through the core and housing. The outer surface of the core has three recesses, each of which forms a series of stair-step notches. Three axially aligned ridges are disposed on the interior surface of the housing engage respective notches, depending on how far the core is inserted into the housing.

Abstract: A connecting structure for covered wires is provided. At first, a shield wire 1 and a ground wire 2 are prepared. After overlaying the ground wire 2 on the shield wire 1 cross each other, respective overlapping portions of the wires 1, 2 are interposed between an upper resin tip 13 and a lower resin tip 14. Next, the upper and lower resin tips 13, 14 are oscillated with ultrasonic waves while compressing the upper and lower resin tips 13, 14 from the outside. Consequently, respective outside rinds 1d, 2b of the wires 1, 2 are molten for removal, so that a braided wire 1c comes into electrical contact with a core line 2a. The upper and lower resin tips 13, 14 have wire receiving grooves 13a, 14a formed on their butt faces. Each of the groove 13a, 14a has a semi-circular cross section of a diameter corresponding to the diameter of the shield wire 1.

Abstract: An electrical joint is provided between first and second electrical leads having different inner diameters. The electrical joint is formed using an electrically conductive transition post including a disk-shaped a separation member, a first cylindrical mounting post having a first diameter integral with the separation member and extending away therefrom in a first direction, and a second cylindrical mounting post having a second diameter integral with the separation member and extending away therefrom in a second direction generally opposite the first direction. The separation member lies in a plane transverse to the longitudinal axis of the first and second mounting posts and has a diameter greater than that of either the first or the second mounting post. A first electrical lead is fittingly received on the first mounting post and a second electrical lead is fittingly received on the second mounting post. In each instance, the free ends of the electrical leads abut the separation member.

Abstract: A cable probe is provided which can be installed without special tools, in which the fixing of the cable (3) is achieved by tensile forces acting on the cable (3), and in which the cable (3) can be shortened by the customer to a length corresponding to requirements. It has a cable fixing device which has a member (4) with an axial, conical internal bore (41) tapering in the direction away from the housing. Arranged in the member (4) is a cone (5) tapering in the direction away from the housing, which tightly encloses the cable (3) and can be displaced thereon only by an external force, and which has an axial cylindrical bore (51) through which the cable (3) is guided and cut-outs (52) extending in the longitudinal direction of the cone and passing through the wall of the cone (5), whereby the cone (5) can be compressed in the radial direction so that the internal diameter of the cone (5) can be reduced.

Abstract: A connecting structure for covered wires is provided. At first, a shield wire 1 and a ground wire 2 are prepared. After overlaying the ground wire 2 on the shield wire 1 cross each other, respective overlapping portions of the wires 1, 2 are interposed between an upper resin tip 13 and a lower resin tip 14. Next, the upper and lower resin tips 13, 14 are oscillated with ultrasonic waves while compressing the upper and lower resin tips 13, 14 from the outside. Consequently, respective outside rinds 1d, 2b of the wires 1, 2 are molten for removal, so that a braided wire 1c comes into electrical contact with a core line 2a. The upper and lower resin tips 13, 14 have wire receiving grooves 13a, 14a formed on their butt faces. Each of the groove 13a, 14a has a semi-circular cross section of a diameter corresponding to the diameter of the shield wire 1.

Abstract: A covered wire waterproof connection structure including wire members which are conductively connected at a connection portion and resin material which covers around the connection portion. At least one of the wire members comprises a covered wire having a conductive wire portion including plural wire cores between which gaps are formed, and a cover portion formed by coating resin around an outer periphery of the conductive wire portion. The resin material is filled into all of the gaps at a portion of the conductive wire portion.

Abstract: A cable splice enclosure made up of: (1) a splice enclosure tube having two compressible ends with annular ledges inside the compressible ends; (2) first and second compressible grommets adapted to be inserted into the compressible ends; and (3) two outer shells adapted to be fastened to said first and second compressible ends of the cable splice enclosure tube. The outer shells have an inclined outer end portion that: (1) holds the compressible grommets in abutted relation to the annular ledges; and (2) compresses the compressible ends, which, in turn, radially compresses the grommets to form a watertight seal around the cables to be spliced. In a different embodiment, which is suitable for enclosing butt-splices, the splice enclosure tube has an open compressible end and a closed end. The open compressible end of the butt-splice enclosure tube uses the same parts and works the same as both ends of the splice tube extender.

Abstract: This invention relates to non-metallic, corrosion-resistant strength systems for underwater power and communications systems and methods for terminating such cables. The strength system comprises two non-metallic strength members; each strength member is comprised of at least one glass strand, and each strand is comprised of a plurality of glass filaments that are bound together with a polymeric material. The first strength member is applied in a helical lay over transmission media which forms the core of the cable, and the second strength member is applied over the lay of the first strength member in a helical lay having a circular direction opposite to the lay of the first strength member. The invention further embraces a method of terminating such cables involving the use of an inner termination cone, an adhesive used to secure the strength members onto the inner termination cone, and an outer termination cone which is secured over the inner termination cone and adjoining strength members.

Abstract: A protective member (28) having a melting point lower than a cover (12) is provided on a distal end of a protrusion (22) of the cover (12). A terminal (13) and a covered electric wire (19) are housed in a groove portion (18) of a connector housing (11), and the protrusion (22) of the cover (12) is inserted into the groove portion (18), and thereafter, an ultrasonic vibration is applied to the covered electric wire (19) and the terminal (13) from the cover (12). A covering portion (27) of the covered electric wire (19) is melted and removed by the ultrasonic vibration. The protective member (28) absorbs a heat generated in the cover (12) by applying the ultrasonic vibration, and is preferentially melted. Therefore, the protrusion (22) is not deformed due to the heat, so that a contact area of a core wire (26) and the terminal (13) can be secured.

Abstract: An insulation displacement connection device for coaxial cables includes a conductive housing having a cable connection stub and a device for insulation displacement connection of outer and inner cable conductors. The stub has at least one recess formed therein extending crosswise to a center axis and being open toward the outside, for introducing the device. The device cuts through an outer insulating cable sheath and contacts the outer cable conductor upon being plugged into the recess. The device is self-clampingly retained in the recess in a plugged-in state. An insulation displacement connection device for electrically joining a first electrical conductor to a second electrical conductor includes a slit being formed in the first conductor and being constructed and dimensioned with a width being at least partially less than the diameter of the second conductor.

Abstract: A connecting structure for covered wires is provided. At first, a shield wire 1 and a ground wire 2 are prepared. After overlaying the ground wire 2 on the shield wire 1 cross each other, respective overlapping portions of the wires 1, 2 are interposed between an upper resin tip 13 and a lower resin tip 14. Next, the upper and lower resin tips 13, 14 are oscillated with ultrasonic waves while compressing the upper and lower resin tips 13, 14 from the outside. Consequently, respective outside rinds 1d, 2b of the wires 1, 2 are molten for removal, so that a braided wire 1c comes into electrical contact with a core line 2a. The upper resin tips 13 is provided, on its butt face, with a stopper 13b for defining the position of a leading end of the ground wire 2, while the lower resin tip 14 is provided, on its butt face, with a recess 14b for receiving the stopper 13b.

Abstract: An electrical contact facilitates making a soldered connection between an insulated wire conductor and a circuit board. The contact includes a tubular contact body having a hollow interior. One end of the contact body has an insulation piercing edge which promotes penetration of the contact body through the insulation of the wire conductor and into the conductive core when the wire conductor is pressed against the edge of the contact body. The other end of the contact body is solderable to a circuit board. The hollow interior permits solder to be drawn by capillary action through the contact body and into the wire conductive core.

Abstract: The present invention relates to a method and a device for grounding shielding braids of shielded cables. The device includes a longitudinal support of generally channel-shaped cross section, with a gasket covered in a sheath disposed in the bottom thereof. The support is suitable for receiving a cover on the top face thereof, the support including, in the upper portion thereof, a series of holes suitable for receiving the shielded cables.

Abstract: A wire connecting structure has a connector housing body, a terminal holding portion provided on the connector housing body, a cover body for clogging the terminal holding portion, terminals disposed in the terminal holding portion, and covered wires containing core elements and cover portion, wherein each of the covered wires is placed in each of the terminals and each of the covered wires is pressed by the cover body while ultrasonic vibration is applied so as to melt the cover portion thereby making the core elements and the terminal into conductive contact with each other, the wire connecting structure further having relief concave portions which are provided on at least one of the cover body and connector housing body, for releasing the melted cover portion.

Abstract: A covered wire connection structure is formed by the steps of: pinching a covered wire with a pair of resin chips; pressing and exciting a cover portion of the wire by ultrasonic vibration so as to conductively connect conductive portions of both the covered wires at the connection portion; and melting a pair of the resin chips so as to seal the connection portion. The resin chip comprises main melting portions for pinching the connection portion which are melted to a mating resin chip so as to seal the connection portion, and auxiliary melting portions which are formed of material compatible with the cover portion of the covered wire introduced from the main melting portions and pinch the cover portion such that they are melted to the mating resin chip. The auxiliary melting portions and cover portion of the covered wire are melted together and integrated so as to seal an introductive portion of the covered wire from the resin chips.

Abstract: A clamping device, in particular a cable clamping device for telecommunications technology and data systems technology. The clamping device is of a generic type which ensures that objects having different diameters are clamped simply and reliably and without the risk of an impermissibly high degree of pinching of the object to be clamped. The clamping device includes a clamping member, which is formed from a basic body and at least one clamping arm and into which the object to be clamped is inserted. The clamping member is pushed into a sleeve having cutouts in which at least one of the clamping arms of the clamping member engages. By rotating the sleeve with respect to the fixed basic body at least one of the clamping arms reduces the clamping inside diameter of the clamping member.

Abstract: A wiring system by which a high voltage AC current is transported from a transformer to a neon light in a manner to reduce arcing and therefore fire potential, employing a flexible cable having a central current carrying electrical conductor, a symmetrical layer of insulation concentrically surrounding the central conductor, and a symmetrical circumferential layer of shielding conductor surrounding the layer of insulation, and at least one connector for connecting the flexible cable to another piece of equipment, the connector providing a central electrical conductor and a concentric shield grounded to the piece of equipment so that a symmetrical relationship of a central current carrying conductor within a concentric conductive shield providing a concentric and substantially uniform electrostatic field and continuity of ground is maintained throughout the system.

Abstract: A shield layer 13 of a shielded cable W and a metal shell 30 are electrically connected via a connection member 40. This connection member 40 is tubular and includes a receiving portion 41 which is insertable under the shield layer 13, a shield layer fastening portion 42 for fastening the shield layer 13 to the receiving portion 41, and a contact portion 43 to be brought into pressing contact with the inner circumferential surface of the metal shell 30. The portions 41 to 43 are integrally or unitarily formed. With this construction, if the shield layer fastening portion 42 is fastened after the receiving portion 41 is inserted under the shield layer 13, the shield layer 13 is tightly held between the receiving portion 41 and the fastening portion 42. As a result, the shield layer 13 and the metal shell 30 are connected electrically even if the rigidity of an insulation layer 12 is reduced.

Abstract: Two covered wires conductively connected are overlapped with each other at connection portions S. The overlapped connection portions are pinched by a pair of resin chips. Cover portions are melted and the conductive wire portions of both the covered wires are conductively contacted with each other at the connection portions by pressing from outside of the resin chips. Then, the pair of the resin chips are melt-fixed to each other to seal the connection portions. The resin chips are provided with first melting portions which are melt-fixed to a mating chip in area including the connection area to seal the connection portions and second melting portions which are separated from the first melting portions and melt-fixed to the mating chip in area other than the connection portion. Thus, it is possible to achieve reduction of conducting resistance and improvement of mechanical strength.

Abstract: The invention relates to a connector and a manufacturing method thereof for a three-phase cable including concentric, segmentally disposed phase conductors (1) with surrounding insulation structures (11) and a concentric earth conductor (8) enclosing the phase conductors. According to the invention, the phase conductors (1) inside the connector are isolated from each other by a star-shaped dividing insulation piece (3) keeping the phase conductors (1) separate in their segments. Phase terminals (2) of the connector are disposed on the segment bottoms of the dividing insulation piece (3). The connector further incorporates a clamp (5, 7) suited for pressing the phase conductors (1) against the phase terminals (2) and a ferrule (10) on which the earth conductor (8) can be bent backward to mechanically lock a receptacle.

Abstract: A threaded cable joint for a cable having a cable shield enclosing an internal conductor region. The cable joint, which may be connected to a housing, has a connection piece and an outer pressure element. The outer pressure element is screw-connected to the connection piece, and acts on a seal to cause the seal to abut against the cable as the cable passes through the threaded cable joint. A number of shield contact elements are arranged within the connection piece, and in electrical contact with the connection piece. The shield contact elements include conductive contact bows that extend in the direction of the passed-through cable for contacting the cable shield at a first contact point, thus forming a direct electrical connection between the cable shield and the connection piece.

Abstract: An attenuated cable is formed with an in-line attenuator conducted between two cable lengths wherein the cable lengths are rigidly joined together by a rigid hollow housing which encloses the attenuator therein. The attenuator circuit is housed within the housing, and is electrically connected to the cable lengths without the use of mechanical connections therebetween. The free ends of the cable lengths farthest from the housing are provided with standard connectors for connecting the cable to additional electrical devices such as microphones, mixers or amplifiers. Since the housing and attenuator circuit are relatively small and light relative to the larger cable lengths, the attenuated cable has substantially the same weight and flexibility as a continuous length of cable.

Abstract: Two covered wires to be conductively connected with each other are overlapped with each other at connection portions. The overlapped connection portions are pinched by a pair of resin chips and then cover portions are melted and conductive wire portions of the covered wires are conductively contacted with each other by pressing from the outside of the resin chips at the connection portions. The pair of the resin chips are melted together to seal the connection portions. The pair of the resin chips are provided with wire introducing hole portions formed in a shape of non-through hole gradually narrowing from the introducing end toward the connection portion when the resin chips are fit together. With the cover portions at least at the introducing ends of the covered wires in the wire introducing hole portions left, the resin chips are melted together. Thus, it is possible to ensure an excellent melting operation efficiency and improve the mechanical strength of the entire connection portions.

Abstract: Two covered wires are conductively connected to each other by overlapping with each other at connection portions. The overlapped connection portions are pinched by a pair of resin chips. By melting cover portions and pressing resin chips from outside, the conductive wire portions of the covered wires are conductively contacted with each other at the connection portions. The pair of the resin chips are melt-fixed to each other to seal the connection portions. A crossing angle .theta. of the two covered wires at the connection portion is set to no less than 45.degree. and greater than 135.degree.. Thus, the covered wires can be conductively connected with each other inexpensively and easily. Further, a connecting state having an excellent electrical characteristic can be obtained stably.

Abstract: Two covered wires conductively connected with each other are overlapped with each other at connection portions. The overlapped connection portions are pinched by a pair of resin chips. Cover portions are melted and pressurized from the outside of resin chips capable of obtaining a sealing condition and providing an excellent melting operation efficiency so as to connect conductive wire portions conductively at the connection portions. Then, the pair of the resin chips are melted together to seal the connection portions. In introducing end portions in which a covered wire is introduced out of the resin chips, between a melting surface relative to a mating resin chip and an outer peripheral surface, a round corner having a curvature continuously changing smoothly is provided. Thus, it is possible to obtain a sealing condition securely and an excellent melting operation efficiency.

Abstract: An adhesive tube, a composite tube comprising a heat-shrinkable tube having on the inner surface thereof the adhesive tube, and a method for sealing an object having an uneven surface comprising the steps of: inserting the object in the composite tube and then heating the composite tube. The adhesive tube comprises a double-layered thermoplastic resin layer comprising an outer layer and an inner layer, the outer layer having a melt index smaller than that of the inner layer.

Abstract: A coil component comprises a wire, a terminal pin around which an end of the wire is wound, a terminal section for fixing one end of the terminal pin and for allowing the terminal pin to project therefrom. A conductive connection member is connected to the terminal pin so that it can be electrically connected to the wire. The terminal pin has a diameter on an open side thereof which is formed larger than that on a root side form which the conductive connection member is drawn out. The pin is formed as a contact section with which the conductive connection member makes contact when it is pulled in a projection direction of the terminal pin.

Abstract: The claimed invention provides an ultrasonic welding method, whereupon joint portions in which a copper foil portion and a twisted-wire electric cable are placed one upon the other in each groove of a resin casing, the grooves having a through-hole portion. In the through-hole portion, the copper foil portion and the twisted-wire electric cable are placed one upon the other. Welding is performed in a state in which the piled-up portion is sandwiched between a welding tip formed at an end of a welding head and an anvil. Thus, the joint portion between the copper foil portion and the twisted-wire electric cable invade and are invaded by a portion of the resin casing softened by welding heat. The joint portion is fastened not only by welding, but also by the solidified resin.

Abstract: A device for repairing and electrically connecting at least two sections of electrical cable includes an elongate connector, for example a tube, having two open ends that are each adapted to receive an end of an electrical cable section. The cable connector has an interior wall longitudinally dividing the cable connector into two portions, each portion having a hollow interior for containing the end of one of the two electrical cable sections. The cable connector also has an orifice in each of the two portions communicating with the hollow interior of that portion. A closure device, such as a threaded plug, is mateable with each orifice.

Abstract: This invention relates to a method for preventing transport of fluids--such as water and/or gas--through a joint between at least two insulated cable conductors (1,2;21,22,23). The method includes provision of a jointing ferrule (3) for insertion of the conductor ends into the ferrule and making required electrical contacts, --and provision of a molded sheath (8) of insulation material over the joint in sealed contact with the conductor insulation. The ferrule is precovered with a coating containing EEA copolymer to obtain improved adhesion between the ferrule and the insulation sheath. The mold material must be compatible with--and preferably of the same material--as the conductor insulation.

Abstract: Covered wires are overlapped with each other at an overlapping portion and pinched by a pair of resin chips. Cover portions are melted by ultrasonic vibration and conductive wire portions are conductively contacted with each other by pressing from outside of the resin chips. A pair of the resin chips are melt-fixed to seal the overlapping portion S. The resin chips have main melting portions which are melted with each other to pinch and seal the overlapping portion S, auxiliary melting portions which are melted with each other such that cover portions of covered wires introduced from the main melting portions are pinched and cover portion removing portions formed in the auxiliary melting portions to melt and extrude the cover portion. Thus, by this covered wire connection structure, it is possible to provide an excellent melting performance and achieve enhancement of melting force between the resin chips and improvement of covering performance for conductive wire portions.

Abstract: An environmentally sealed splice kit for splicing together a shielded cable which is fully immersion protected and which is installed using only hand tool without using heat generating sources. The splice kit has a pair of crimp sleeves which are coupled to a separate wire braided end of the shielded cable. A jumper wire is coupled to each crimp sleeve for providing electrical continuity between each wire braided end of the shielded cable. A crimp ferrule is coupled to each wire braided end of the shielded cable for holding and connecting each crimp sleeve to each wire braided end of the shielded cable. Conductor splices are used for splicing together each center conductor of the shielded cable to be spliced together. A dielectric spacer is used for separating and providing an isolating medium between each center conductor to be spliced together and the jumper cable.

Abstract: An optic module contains a flexible circuit board forming a cable which connects between an optical sub-assembly and a rigid interconnect structure within the optic module. One end of the cable includes lands proximate to through holes for soldered connection to pins which extend from the optical sub-assemblies. At the other end of the cable leads extend across interconnection pads on the surface of the rigid interconnect structure for soldered connection. The top surface of the interconnect pads is 10/90 (Sn/Pb) solder to provide a high temperature soldered joint. Solder flux can not be used because cleaning solvents would contaminate the interconnect structure. An atmosphere of formic acid mixed with nitrogen surrounds the lead and pad and a fluxless solder joint is formed.

Abstract: An electrical interconnection device including an electrical element and a sealing member sealed within a body. The body is constructed of a first section and a second section bonded together to form an enclosure for retaining the electrical element and sealing member. Sealed passageways extend from the sealing member to the electrical element. Substrates are inserted through the sealing member into the passageways for connection to the electrical element.

Abstract: A waterproof splice for use in connecting two multiconductor electric cables having jackets of different insulation material and a method of making the splice are disclosed. The splice consists of a mechanical electrical connection between the conductors, a mechanical bond formed on the insulation of one of the conductors and a sheath of insulation material molded over the splice and adjacent cables. The sheath bonds with the jacket of one cable and the mechanical bond formed on the insulation of the other cable. The mechanical bond is a seal ring of elastomeric material that is compressed between glands to move the seal ring into sealing engagement with the conductor. The disclosed splice is both strong and waterproof in spite of the poor bonding characteristics between the two different insulation materials on the two conductors. The splice is appropriate for cables having surface, subsurface and underwater applications and is specifically designed for use in conducting seismic surveying operations.

Abstract: A linking device intended notably for the connection of rods made of a composite material based on polymerizable resin and reinforcing fibers includes a tubular sleeve tightly connected to one end of a rod by plastic deformation of the sleeve placed around said end. The device is formed by a process for fastening linking means on elongated elements made of a composite material.

Abstract: A cover plate for covering exposed conductive wires of a flat cable is attached to a surface of an attaching plate for holding the flat cable, and insert molding is performed in such a manner that the cover plate is included. Therefore, direct contact of a portion of flows of synthetic resin for use in performing insert molding that flows along a surface of the attaching plate for holding the flat cable with conductive wires of the flat cable can be prevented. Moreover, if the synthetic resin introduced into another surface of the attaching plate for holding the electric wires flows in joint portions between the conductive wires, the conduction wires of the flat cable are pushed against the cover plate due to the flow of the synthetic resin so that the conductive wires of the flat cable are supported. Thus, the conductive wires of the flat cable can be protected from excess stress when the insert molding operation is performed. Thus, breakage of the conductive wires of the flat cable can be prevented.

Abstract: An enclosure for protecting cable splices having a pair of outer shells, a pair of inner shells, an extender between the pairs of inner and outer shells, and clips inside the inner shells for resisting forces applied to the spliced cables that would tend to separate the spliced cables. The cables to be spliced are passed through a hole in the outer shell, inner shell, and compressible grommets in the inner shells, and space for the cable splices is provided by the extender tube. As the outer shells are threaded onto the extender tube, a seal is formed around the splice by the compression of the grommets and the joining of the inner ends of the inner shells with the ends of the extender tube.

Abstract: A cylindrical radially shrinkable sleeve (10) for enclosing a connection or an end termination of an electrical cable having an insulation surrounded by a shielding layer. The sleeve (10) has an outer shielding layer (16) of semi-conductive material and at least an insulation layer (14) on the inner side of the shielding layer (16). The cylindrical layers are made of flexible material adapted to be retained in a radially expanded state by a mechanical support. The radially innermost layer is of a homogeneous material having a relative dielectric constant which is larger than that of the insulation of the cable. The material is a matrix of dielectric plastic material containing microspheres which are electrically conductive either totally or only at the outer surface thereof, and which have a diameter between 10 and 500 .mu.m. The microspheres are uniformly mixed into the matrix material, with the compound having a dielectric constant equal to or larger that 3 in a dielectric strength of at least 5 kV/mm.

Abstract: The disclosure relates to a flexible-core electrical cable whose end is stripped and carries a metal disk of diameter not exceeding that of the cable sheathing and having a central hole. The disk is fitted against the end of the sheathing with the core passing through the central hole. Conducting solder is applied to rigidify the flexible core and attach it mechanically to the disk. The invention is applicable to flexible-core high-voltage cables, in particular those used on high-voltage transformers fitted with conducting connection pellets.

Abstract: A protectively packaged connector for connecting multiple conductors is disclosed. The connector has multiple parts, each of which is provided with a protective covering of heat shrink thermoplastic film. The connector is assembled in the normal manner but with the film in place. This protects the connector from outside contaminants and is especially useful for filled connectors which readily attract contaminants because of the sticky waterproof filling compound.

Abstract: The invention comprises an electrical connector having a central member with a first securing portion. A pair of jaws extend from the central member. A conical member has a hollow interior and a second securing portion. The second securing portion engaging the first securing portion and the jaws being received within the hollow interior whereby as the securing portions are tightened together, the jaws are pushed together in order to grip a conductor therebetween.

Abstract: An apparatus and process for splicing electrical wires that are to be exposed to an adverse environment. The apparatus includes a connector, an insulating sleeve adapted to retain the connector, and an encapsulant. The encapsulant, which is disposed within the insulating sleeve, has a cone penetration value of 100 to 350 (10.sup.-1 mm) and an ultimate elongation of at least 200%.

Abstract: A coupling apparatus and method for joining together lengths of electrical conduit in a conduit system. The coupling apparatus includes a resealable port that permits lubricant to be introduced into the coupling apparatus to facilitate wire pulling through a conduit system and to reduce strain on the insulation material of the wire. The coupling apparatus is a generally T-shaped tubular structure and includes a pair of axially-aligned conduit receiving openings which define an inlet and an outlet, respectively. The inlet and outlet openings are spaced a distance apart from one another by a central chamber. The central chamber has an inner tubular diameter substantially equal to the inner tubular diameter of the conduit to be joined in order to provide a smooth transition for wire being pulled through the coupling apparatus. The resealable lubrication port is defined by a vertically oriented tubular leg portion and removable threaded plug which are joined to a middle section of the central chamber.

Abstract: An arrangement for insulating junctions of three or more conductors utilizing standard connectors for joining conductors having different types of insulation and/or different sizes. The junction is enclosed in a cage formed of wire, wire and sheet metal, sheet plastic, or molded plastic. The cage material is supplied in sheet form and is cut to appropriate size for a particular junction to form an armature for supporting insulating material. A hoop may be used to support the cage. Insulation covers the cage and connectors.

Abstract: An apparatus and method for protection of electrical contacts as well as a process for splicing electrical wires that are to be exposed to an adverse environment. The protection apparatus ensures that the electrical contacts are protected when they are otherwise located in an adverse environment. In a particular embodiment, the apparatus includes a connector, an insulating sleeve adapted to retain the connector, and an encapsulant. The encapsulant, which is disposed with protection apparatus, e.g. the insulating sleeve, has a cone penetration value of 100 to 350 (10.sup.-1 mm) and an ultimate elongation of at least 200% and preferably an elastic modulus of less than 10.sup.7 dynes/cm.sup.2.

Abstract: In a shielded connector, an opening into which a shielded wire is to be inserted is formed in a rear portion of a housing, a part of a metal shell disposed in the housing is formed as an exposed portion which is exposed on an inner periphery of the opening, a terminal is clamped to be connected to a conductor of a leading end of the shielded wire, and a contact which makes contact with the exposed portion is clamped to be connected to a braided shield portion on an outer periphery of an inner sheath. A projection which, when the terminal is fitted and fixed at a given position in the opening, interferes with the contact to block the contact from moving toward the terminal, is formed on an inner periphery of the opening.

Abstract: A cable end with its terminal or connector is maintained in a curved installed position with the aid of a bent retaining jacket (25A). The jacket is preferably a corrugated metal hose having one end formed into a bushing that is clamped in place on a support body of the connector or terminal together with other cable components such as a protective hose system. The bend maintaining jacket has an inner diameter that is larger than the outer diameter of the protection hose system of the cable so that the jacket may be freely pushed over the cable end prior to the installation of the terminal or connector. The opposite end of the jacket remains open or rather unconnected, thus enabling the jacket to accommodate any twists that result from bending the cable end. Although the jacket is bendable, it has a bend retaining characteristic that will not change its curved configuration in response to impacts, vibrations, or the like. Only an intentional renewed bending can bring the jacket into a new curved shape.