A busbar having a magnetic shielding structure arranged between conductor bars and an outer casing. The magnetic shielding structure includes a first shielding element and a second shielding element each having a U-shaped cross-section. The shielding elements are made of ferromagnetic material and enclose—on opposite sides—conductor bars so that each fin of the first shielding element is at least partially superimposed on a homologous fin of the second shielding element. The shielding elements can consist of anisotropic ferromagnetic strips with oriented grains.

Busbar comprising a supporting body (1) made of a tough-hard material, and at least one electrical conductor (2.1, 2.2, 2.3, . . . ), wherein the conductor (2.1, 2.2, 2.3, . . . ) is connected to the supporting body (1). The supporting body (1) comprises a seal (3) that is made of a rubber-elastic material, which encloses the conductor (2.1, 2.2, 2.3, . . . ) on the outer circumferential side with an annular sealing region (4) in a sealing manner.

A busway assembly includes first and second busway sections and a joint assembly connecting the first and second sections. Each busway section includes a housing including first and second opposing side portions. Each busway section includes a first insulator held in the first side portion and a second insulator held in the second side portion. The first and second insulators each hold one or more bus bar conductors. The joint assembly includes first and second connected joint housings and plurality of joint conductors held in the first and second housings. A first exposed portion of each joint conductor extends out of the first housing and is electrically connected with one of the bus bar conductors of the first busway section. A second exposed portion of each joint conductor extends out of the second housing and is electrically connected with one of the bus bar conductors of the second busway section.

A gas-insulated line is provided. The gas-insulated line defines an axial direction and includes an enclosure configured to surround a nominal conductor and a pressurized insulation gas in the enclosure, wherein the enclosure includes: a first attachment point and a second attachment point, the first attachment point and the second attachment point being spaced apart from each other in the axial direction; a rope element fixed between the first attachment point and the second attachment point and loaded with a pretension; and a flexible enclosure element arranged between the first attachment point and the second attachment point.

A busbar assembly includes a mesh busbar configured to electrically couple a first component to a second component. An electrical coupling method including securing a mesh busbar to a first component and a second component to electrical couple the first component to the second component.

The invention relates to an electric device, especially to a power busbar connection tool, said tool comprises an electric motor drive unit, an electric control unit, a stationary portion removably connects to a busbar, a movable portion removably connects to a busbar and a loading portion for clamping connecting rods. Said movable portion is movably connected to a first and second stationary shaft of said stationary portion, said movable portion is connected to a movable shaft by a screw pair, said movable portion is fixedly connected to said electric motor drive unit, said movable shaft is driven to rotate around its axis by said electric motor drive unit, said loading portion is movably connected to said second stationary shaft and slides between a body of said stationary portion and a body of said movable portion, said loading portion rotates around said second stationary shaft. It is achieved that a plurality of connecting rods are simultaneously mounted to busbars and that two busbars are connected in a form of butt-and-butt connecting.

A semiconductor module according to the present disclosure includes: an insulating substrate; a first conductor disposed on the insulating substrate; a second conductor disposed on the insulating substrate; a first semiconductor element disposed on the first conductor; a second semiconductor element disposed on the second conductor; a first busbar connected to the first conductor in a region between the first semiconductor element and the second semiconductor element; a second busbar connected to the second semiconductor element; and an output busbar connecting the first semiconductor element to the second conductor and connected to the second conductor in the region between the first semiconductor element and the second semiconductor element. The output busbar is disposed at least partially overlapping the first busbar, and in an overlap region between the output busbar and the first busbar, the output busbar is located above the first busbar.

An electrical distribution system for providing electric power to cranes, hoists, elevators and the like which move on a track, tower or support beam. In particular, a modular electrical system comprised of a modular buss bar system which provides electrical power for operation of construction cranes, hoists, elevators and the like on a construction or material transfer site or permanent building including a system and apparatus which is configurable to provide an easily movable and/or reconfigurable electrical power distribution system which is mounted to a construction mast, hoist, elevator or building under construction during the building construction process, a permanent building, or to a horizontal overhead crane support beam. In a further embodiment, a heating system for a modular buss bar system is provided which prevents the formation of ice and snow on the electrical contacts of a modular buss bar electrical system.

A tool has a pneumatic motor driving unit, an electric control unit, a stationary portion, a movable portion, a loading portion for clamping a connecting rod, a first heating portion, and a second heating portion. The movable portion is movably connected to a first and second stationary shaft of the stationary portion, the movable portion is connected to a movable shaft by a screw pair, the movable shaft is fixedly connected to the pneumatic motor driving unit of the stationary portion, the movable shaft is driven to rotate around its axis by the pneumatic motor driving unit, the loading portion movably connects to the second stationary shaft of the stationary portion and slides between a stationary portion body and a movable portion body, the loading portion rotates around the second stationary shaft.

A busway assembly includes first and second busway sections and a joint assembly connecting the first and second sections. Each busway section includes a housing including first and second opposing side portions. Each busway section includes a first insulator held in the first side portion and a second insulator held in the second side portion. The first and second insulators each hold one or more bus bar conductors. The joint assembly includes first and second connected joint housings and plurality of joint conductors held in the first and second housings. A first exposed portion of each joint conductor extends out of the first housing and is electrically connected with one of the bus bar conductors of the first busway section. A second exposed portion of each joint conductor extends out of the second housing and is electrically connected with one of the bus bar conductors of the second busway section.