Abstract:
A wiring harness comprises a plurality of high-voltage electrical conduction paths (22); a motor connector (23) provided at one ends of the high-voltage electrical conduction paths; and an inverter connector (24) provided at the other ends of the high-voltage electrical conduction paths. An extra-length portion (26, 34) is provided at an intermediate portion of the conductor. The extra -length portion is configured to absorb displacement caused by a force acting upon the wiring harness and forcing it to be extended. The extra-length portion takes a folded shape obtained by folding the conductor.
Abstract:
A conductive path structure (81) includes a conductor (82) that includes a first conductive portion and a second conductive portion which are connected to each other through a cut-off facilitating portion (84), and an insulation member (83) that covers the cut-off facilitating portion (84) directly or indirectly. When the cutt-off facilitating portion (84) is cut off so as to separate the first conductive portion and the second conductive portion to each other due to an impact appplied to the cut-off facilitating portion (84), the insulation member (83) is configured so as to cover the separated first conductive portion and the separated second conductive portion.
Abstract:
[Problem] To provide a wiring harness and a routing structure of the wiring harness able to prevent high temperature and its influence caused by heat generation. [Means for solving problem] A wiring harness 22 includes a harness main body 24 having a plurality of high voltage conducting lines 27. The high voltage conducting lines 27 are arranged with gaps 37 between the adjacent high voltage conducting lines 27. Further, the plurality of high voltage conducting lines 27 are arranged to maintain an interval 41 as the gap 37. It becomes a routing structure of the wiring harness 21 when curved portions of such high voltage conducting lines 27 are directly or indirectly made contact with a shield cover 23 covering the wiring harness 22. Because the high voltage conducting lines 27 of the wiring harness 22 are arranged with gaps between the adjacent high voltage conducting lines 27, radiation performance of the wiring harness 22 is better than the wiring harness of which high voltage conducting lines are bundled.
Abstract:
A shield member (26) capable of preventing the break of a metallic foil due to the bend of the metallic foil and bringing the electromagnetic shielding capability is provided. The shield member (26) includes a metallic foil (27) formed in a tubular shape, to be provided for covering and surrounding one or more conducting paths (25). At least one of a wrinkled part (30) and an axially uneven part (31) is formed in the metallic foil at least in correspondence with a bent position of the one or more conducting paths.
Abstract:
There is provided a wiring structure of wire harness capable of reducing an influence due to the swing and heat even in the case where the wire harness is subjected to the countermeasure against electromagnetic shield, and a shielding cover used for the wiring structure. In the wiring structure, a conducting path of a harness body of the wire harness and a conductive shielding cover that covers the wire harness are partly put into at least one of a contact state and a holding state directly or indirectly.
Abstract:
There is provided a wiring structure of wire harness capable of reducing an influence due to the swing and heat even in the case where the wire harness is subjected to the countermeasure against electromagnetic shield, and a shielding cover used for the wiring structure. In the wiring structure, a conducting path of a harness body of the wire harness and a conductive shielding cover that covers the wire harness are partly put into at least one of a contact state and a holding state directly or indirectly.
Abstract:
A conductive path structure includes a conductor that includes a first conductive portion and a second conductive portion which are connected to each other through a cut-off facilitating portion, a first covering member that covers the first conductive portion and the cut-off facilitating portion, and a second covering member that covers the second conductive portion and the cut-off facilitating portion. The second covering member covers the cut-off facilitating portion through the first covering member. The second covering member slidably covers the first covering member.
Abstract:
The present invention is to provide a shield cover and a shield structure which can be improved according to an electromagnetic shielding means. The shield cover by processing a conductive plate slidably includes a front shield portion, a back shield portion, a side shield portion, connections, an entry and a receiving space, and covers a wiring harness 11 as a shield object. The shield cover is formed into a U-shape in a cross-section. The shield structure includes the shield cover and a wall-shaped shield cover engaged with the shield cover.
Abstract:
[Problem] To provide a wiring harness and a routing structure of the wiring harness able to prevent high temperature and its influence caused by heat generation. [Means for solving problem] A wiring harness 22 includes a harness main body 24 having a plurality of high voltage conducting lines 27. The high voltage conducting lines 27 are arranged with gaps 37 between the adjacent high voltage conducting lines 27. Further, the plurality of high voltage conducting lines 27 are arranged to maintain an interval 41 as the gap 37. It becomes a routing structure of the wiring harness 21 when curved portions of such high voltage conducting lines 27 are directly or indirectly made contact with a shield cover 23 covering the wiring harness 22. Because the high voltage conducting lines 27 of the wiring harness 22 are arranged with gaps between the adjacent high voltage conducting lines 27, radiation performance of the wiring harness 22 is better than the wiring harness of which high voltage conducting lines are bundled.
Abstract:
A conductive path structure includes a conductor (28) that includes a first conductive portion and a second conductive portion which are connected to each other through a cut-off facilitating portion ( 30 ), and a semi -solid state insulation member ( 31 ) that is in a semi -solid state and covers the cut-off facilitating portion ( 30 ). When the cut-off facilitating portion ( 30 ) is cut off so as to separate the first conductive portion and the second conductive portion to each other due to an impact applied to the cut-off facilitating portion ( 30 ), the semi -solid state insulation member ( 31 ) covers end portions of the separated first conductive portion and the separated second conductive portion which are close to the cut-out facilitating portion ( 30 ).