Abstract: A contact assembly for a connector housing includes an adapter element and a contact element. The adapter element has a sleeve with a lead-through opening extending in an axial direction of the sleeve and with a threaded bore extending perpendicularly to the lead-through opening through the sleeve. The contact element is adapted to be inserted into the lead-through opening and latched to the sleeve. The contact element may exhibit varying types of a cable connection section and/or a contact section. The adapter element is receivable within the connector housing and may accept the contact element regardless of the type of cable connection section and/or contact section.

Abstract: A splitter for interconnecting a first connector with at least two second connectors includes a first electrically conductive layer that is connectable to the first connector and to at least one of the second connectors. The first layer has at least two electrically conductive terminals which protrude from the first layer. The electrically conductive terminals are arranged to provide electrical connection between a first contact of the first connector and an associated first contact of at least one of the second connectors.

Abstract: A socket assembly comprises a base frame formed of a thermally conductive material holding a light emitting diode (LED) package to a support structure, a contact element electrically contacting the LED package, and an isolator PCB. The LED package includes an LED PCB having an LED mounted on the LED PCB. The base frame includes a base mounted to the support structure and mechanically engaging the LED PCB so that the LED package is attached to the support structure with a predetermined holding force. The contact element electrically connects the isolator PCB to the LED PCB. The isolator PCB supplies electrical power to the LED. The isolator PCB has a first surface and a second surface; the second surface is in heat transmitting contact with the base frame and the electronic component is disposed on the first surface of the isolator PCB and electrically connected to the LED.

Abstract: A contact assembly for a connector housing includes an adapter element and a contact element. The adapter element has a sleeve with a lead-through opening extending in an axial direction of the sleeve and with a threaded bore extending perpendicularly to the lead-through opening through the sleeve. The contact element is adapted to be inserted into the lead-through opening and latched to the sleeve. The contact element may exhibit varying types of a cable connection section and/or a contact section. The adapter element is receivable within the connector housing and may accept the contact element regardless of the type of cable connection section and/or contact section.

Abstract: A lighting device includes a base, a transparent cover, an electronic circuit mounted to the base, and an antenna. The electronic circuit is connectable with a light emitting element adapted to emit a light through the transparent cover and/or a light receiving element adapted to receive a light through the transparent cover. The antenna has a radiating patch following a contour of an inner surface of the transparent cover and connected to the electronic circuit.

Abstract: A lighting device includes a base, a transparent cover, an electronic circuit mounted to the base, and an antenna. The electronic circuit is connectable with a light emitting element adapted to emit a light through the transparent cover and/or a light receiving element adapted to receive a light through the transparent cover. The antenna has a radiating patch following a contour of an inner surface of the transparent cover and connected to the electronic circuit.

Abstract: A socket assembly comprises a base frame formed of a thermally conductive material holding a light emitting diode (LED) package to a support structure, a contact element electrically contacting the LED package, and an isolator PCB. The LED package includes an LED PCB having an LED mounted on the LED PCB. The base frame includes a base mounted to the support structure and mechanically engaging the LED PCB so that the LED package is attached to the support structure with a predetermined holding force. The contact element electrically connects the isolator PCB to the LED PCB. The isolator PCB supplies electrical power to the LED. The isolator PCB has a first surface and a second surface; the second surface is in heat transmitting contact with the base frame and the electronic component is disposed on the first surface of the isolator PCB and electrically connected to the LED.

Abstract: A wind turbine hub (8) and nacelle (4) assembly including lightning conducting means (26, 30, 32, 40) for conducting lightning between the hub (8) and the nacelle (4), the hub (8) being mounted for rotation relative to the nacelle (4) and being adapted to support turbine blades, the hub (8) including a hub conductor (26) for connection to a turbine blade supported by the hub (8), the lightning conducting means including a conductive track (40) and a terminal (30, 32) which confront and are displaceable relative to each other, one of the conductive track (40) and the terminal (30, 32) being mounted on the hub (8) and being electrically connected to the hub conductor (26) and the other of the conductive track (40) and the terminal (30, 32) being mounted on the nacelle (4), the terminal (30, 32) including a terminal main body (30) which is spaced from the conductive track (40) and a sacrificial conductive terminal extension (32) extending from the terminal main body (30) towards the track (40).

Abstract: A power cable (10) has a metal conductor encased in a first outer sheath (11), and further encased, partially along the length of the cable, in a second outer sheath (12, 13, 14) which influences the pattern of deformation of the cable under mechanical stress.

Abstract: A wind turbine hub (8) and nacelle (4) assembly including lightning conducting means (26, 30, 32, 40) for conducting lightning between the hub (8) and the nacelle (4), the hub (8) being mounted for rotation relative to the nacelle (4) and being adapted to support turbine blades, the hub (8) including a hub conductor (26) for connection to a turbine blade supported by the hub (8), the lightning conducting means including a conductive track (40) and a terminal (30, 32) which confront and are displaceable relative to each other, one of the conductive track (40) and the terminal (30, 32) being mounted on the hub (8) and being electrically connected to the hub conductor (26) and the other of the conductive track (40) and the terminal (30, 32) being mounted on the nacelle (4), the terminal (30, 32) including a terminal main body (30) which is spaced from the conductive track (40) and a sacrificial conductive terminal extension (32) extending from the terminal main body (30) towards the track (40).

Abstract: A power cable (10) is disclosed comprising a metal conductor encased in a first outer sheath (11), and further encased, partially along the length of the cable, in a second outer sheath (12, 13, 14) which influences the pattern of deformation of the cable under mechanical stress.

Abstract: A power cable (10), especially a jumper cable, comprising a self-supporting, fiber-reinforced polymer substrate (12) such as fiber glass coupled to a metal conductor (11).

Abstract: The invention provides an electrical device having improved insulation and reduced partial discharge. The electrical device comprises an electrically conductive resistive element provided on a heat transfer medium for transferring heat from the element. The heat transfer medium includes a layer or body of electrically conductive material and a layer of thermally conductive dielectric material disposed between the element and the electrically conductive material. A continuous film of electrically insulating material, for example a silica over-glaze or polymer encapsulant, is applied around the perimeter of the resistive element to surround the element with the film overlying the edge or edges of the element and the ceramic material adjacent thereto.

Abstract: The invention provides an electrical device having improved insulation and reduced partial discharge. The electrical device comprises an electrically conductive resistive element provided on a heat transfer medium for transferring heat from the element. The heat transfer medium includes a layer or body of electrically conductive material and a layer of thermally conductive dielectric material disposed between the element and the electrically conductive material. A continuous film of electrically insulating material, for example a silica over-glaze or polymer encapsulant, is applied around the perimeter of the resistive element to surround the element with the film overlying the edge or edges of the element and the ceramic material adjacent thereto.