Abstract:
A wire harness includes a tubular sheathing member that covers at least one conduction path, and at least one path-maintaining member that is formed in flat plate shape corresponding to a bent part formed by bending the sheathing member. A tape is wrapped around the path-maintaining member while the path-maintaining member is placed along the bent part.
Abstract:
A shield member includes a metal foil layer and a base layer which have flexibility and are sheet-like or band-like, a bonding layer which bonds the metal foil layer and the base layer, and a cylindrical portion and an overlapping portion which are made by winding and folding the metal foil layer and the base layer so that the metal foil layer is on an inside. The overlapping portion is in a state of being brought down and arranged along the cylindrical portion.
Abstract:
A high-voltage conductive path and a wiring harness are provided. The wiring harness includes the high-voltage conductive path having a shape holding function for holding a shape along an arrangement pathway. The high-voltage conductive path includes a positive electrode conductor, a first insulator extruded and arranged outside of the positive electrode conductor, a negative electrode arranged outside of the first insulator, a second insulator extruded and arranged outside of the negative electrode conductor, a shield member wrapped outside of the second insulator, first and second sheaths extruded and arranged outside of the shield member. The high-voltage conductive path can save space, and easily perform pathway formation, and reduce cost.
Abstract:
A wire harness having good heat-release performance as well as having simple structure and configuration and can be manufactured at low cost is provided. Also, the wire harness which can fulfill electromagnetic shield function is provided. A wire harness 21 includes a thick high-voltage electric wire 22 which electrically connects an inverter 4 and a battery 5, a tubular protection member 23 arranged outside of the high-voltage electric wire 22 so the high-voltage electric wire is passed therethrough, and a heat-transfer-and-shield member 24 made of metal. The tubular protection member 23 includes a cylindrical circular pipe 26 having good heat-release performance, two corrugated tubes 32 and two protectors 33. The heat-transfer-and-shield member 24 is one component constituting the high-voltage electric wire 22 and is arranged in indirect contact with an inner face 27 of the circular pipe 26.
Abstract:
A water stopping structure includes a water stopping member that has an outer peripheral face which is inclined with respect to an axis direction of a shielded wire, and that is adapted to contract a diameter thereof and attached on an outer face of the shielded wire in a state that the outer peripheral face of the water stopping member is positioned to an end portion of the sheath which is adjacent to an exposed portion of the outer sheath, and a fastening ring that has an inner peripheral face which is corresponded to the outer peripheral face of the water stopping member in inclination. The fastening ring is slid in the axis direction of the shielded wire so as to press the end portion of the sheath of the shielded wire for contracting the diameter of the water stopping member in a state that the inner peripheral face of the fastening ring is arranged on the outer peripheral face of the water stopping member.
Abstract:
To simply provide a water-stopping structures for shielded electric wire in the shielded portion of the wire at a low cost, a water stop structure in a shielded electric wire is comprised by stripping a sheath 4 of the shielded electric wire in the middle part thereof; permeating an adhesive into the exposed shield member 3; overlaying a heat shrinkable tube 12 over the shield member via hot melt 14; and heat shrinking the heat shrinkable tube 12 in a state where both ends of the heat shrinkable tube 12 are overlapped with the outer periphery of the sheath 4.
Abstract:
A shield wire has one covered wire, a metal foil shield wound around the covered wire, and a sheath covering around the metal foil shield and a sheath covering around the metal foil shield. In the metal foil shield, slits are formed linearly along a lengthwise direction of a core. The slits adjacent to each other with a space in a direction intersecting the lengthwise direction of the core are staggered along the lengthwise direction
Abstract:
Providing a shield wire, which can be manufactured at low cost and have a good flexibility, the shield wire is structured by one covered wire, a metal foil shield wound around the covered wire, and a sheath covering around the metal foil shield. In the metal foil shield, slits 41 are formed linearly along a lengthwise direction of a core, and the slits adjacent to each other with a space in a direction intersecting the lengthwise direction of the core are staggered along the lengthwise direction. The shield wire including such metal foil shield has a good flexibility.
Abstract:
A portion of a conductor 1a of each high-voltage wire, exposed by removing an insulating sheath 1b, is formed into a flat plate-like terminal 2 of an integral construction. A portion of a conductor 3a of each of the other high-voltage wires 3, exposed from an insulating sheath 3b, is formed into a flat plate-like terminal 4. Each mating pair of flat plate-like terminals 2 and 4 are connected together by welding or melt adhesion, and are received within an insulating casing 5, and are sealed by a hot-melt adhesive 6 filled in the insulating casing 5.
Abstract:
In a lever fitting-type manual disconnector 1A, first and second connector housing 1 and 3 are provided with terminals 9 and 35, respectively. A lever 2 is provided in rotatable and linearly movable manners on the first connector housing 1. A cam groove 21 is provided on the lever 2 and a cam pin 36 is provided on the second connector housing 3. When the lever 2 is rotated, the lever fitting-type manual disconnector 1A is set in a rotation completive position where the terminals 9 and 35 on the both connector housings 1 and 3 connect to one another. When the lever 2 is moved linearly from the rotation completive position, the lever fitting-type manual disconnector 1A is set in a fitting completive position where a fitting-state detective switch is turned on.