A terminal material for connectors, which is obtained by sequentially laminating on a substrate that is formed of copper or a copper alloy, a nickel or nickel alloy layer, a copper-tin alloy layer and a tin layer in this order, and: the tin layer has an average thickness of from 0.2 m to 1.2 m (inclusive); the copper-tin alloy layer is a compound alloy layer that is mainly composed of Cu.sub.6Sn.sub.5, with some of the copper in the Cu.sub.6Sn.sub.5 being substituted by nickel, and has an average crystal grain diameter of from 0.2 m to 1.5 m (inclusive); a part of the copper-tin alloy layer is exposed from the surface of the tin layer, with the exposure area ratio being from 1% to 60% (inclusive); the nickel or nickel alloy layer has an average thickness of from 0.05 m to 1.0 m (inclusive) and an average crystal grain diameter of from 0.01 m to 0.5 m (inclusive).

An inductive sensor includes a core body, a coil wound on the core body, a cavity having a fixed volume within the core body, and an epoxy mixture filling a controlled portion of the fixed volume. The controlled portion of the fixed volume filled with the epoxy mixture controls an inductance of the sensor.

A telecommunications cable for making high resistance measurements comprising a plurality of bundles, each comprising a twisted pair of Category 6a copper conductors and a metal foil shield, one of said copper conductors in each twisted pair serving as a signal wire and the other of said copper conductors in each twisted pair being grounded to thereby serve as a noise ground, a braided grounded metal sheath surrounding said plurality of bundles of twisted pairs; and a grounded shield used as an outer sleeve, whereby said cable is triple grounded.

A covered electrical wire including a conductor and an insulating coating layer covering the outer periphery of the conductor, in which the conductor is a twisted wire obtained by twisting together a plurality of elemental wires constituted by copper or a copper alloy, and the covered electrical wire includes a metallically bonded portion where the elemental wires that are adjacent to each other are metallically bonded to each other.

A high frequency signal transmission cable includes a conductor, an insulator provided over a periphery of the conductor, a plating layer provided over a periphery of the insulator, and a sheath provided over a periphery of the plating layer. A crack suppressing layer includes a non-cross-linked polyethylene is provided between the insulator and the plating layer, in such a manner as to remain in contact with the insulator while being provided with the plating layer over an entire periphery of a roughened outer surface of the crack suppressing layer. The crack suppressing layer is unadhered to the insulator. The plating layer is adhered to the crack suppressing layer. The crack suppressing layer suppresses an occurrence of a cracking in the plating layer by bending together with the plating layer while being integral and moving with the plating layer in a longitudinal direction of the cable.

A coaxial cable includes an inner conductor; an insulator covering a circumference of the inner conductor; a shield layer covering a circumference of the insulator; and a sheath covering a circumference of the shield layer. The inner conductor is composed of first metal strands that are twisted each other in such a manner that a cross-sectional shape of the inner conductor is circular. The shield layer includes a winding shield layer including second metal strands spirally wound around the insulator, and a shield tape layer including a shield tape including a resin tape and a metal layer provided on one side of the resin tape, the shield tape being spirally wound around the winding shield layer with the metal layer being located inwardly radially in such a manner that the metal layer is being in contact with the winding shield layer. The winding shield layer has a gap in at least one location between the second metal strands adjacent to each other in a circumferential direction, and a sum of distances w between the second metal strands adjacent to each other via the gap is not more than an outer diameter d of the second metal strand in a cross-section perpendicular to a longitudinal direction.

The electrical contact material includes a base material, a coating layer provided on a surface of the base material, and an oxide layer provided on a surface of the coating layer. The base material contains Cu. The coating layer contains Zn, Cu, and Sn. The oxide layer is constituted by an oxide containing Zn, Cu, and Sn. When a spherical indenter with a radius of 1 mm is linearly slid against the oxide layer with an applied load of 1 N, a sliding speed of 100 m/sec, a stroke of 50 m, and 10 reciprocation cycles, the largest contact resistance measured after the first to 10th reciprocation cycles is not larger than 5 m.

This disclosure details exemplary battery pack designs for use in electrified vehicles. Exemplary battery arrays that may be incorporated into electrified vehicle battery packs may include a grouping of battery cells and a circuit connector module configured for electrically connecting the grouping of battery cells. The circuit connector module may include a first bus bar made of a single material and a second bus bar that is fusible and made of at least two dissimilar materials.

A method is disclosed for connecting a first and a second conductor for use in a prefabricated cable accessory. The method includes electrically connecting the first and second conductors by welding them together and filling a space between an outer surface of the welded conductor and an outer surface of a cable insulation of the first and second conductors by arranging a metal sleeve therebetween.

A superconductor tape stack can have good current sharing characteristics and low contact resistivity. An electrically conductive material can be used to couple superconductor tapes to each other. In an embodiment, the superconductor tape stack can include double-sided superconductor tapes in a 2X configuration. In other embodiments, the superconductor tape stack can include single-sided superconductor tapes in a F2B configuration. One or more enhancements may be used to help reduce the contact resistivity. The enhancements can include slotted tapes, a conductive buffer layer stack, a relatively low resistivity substrate, a thinner substrate, a thicker stabilizer layer along sidewalls of the tapes, and combinations thereof. A superconductor tape may also have one or more of the enhancements described with respect to the superconductor tape stack. A magnetic coil can have a winding that includes the superconductor tape stack or the superconductor tape.