A plurality of power adapters configured to apply power to loads is described. The plurality of power adapters may comprise a first power adapter configured to apply power to a first load, the first power adapter having a first recess for receiving a first module that is removably attached to the first recess; a second power adapter configured to apply power to a second load, the second power adapter having a second recess for receiving a second module that is removably attached to the second recess; and a control device adapted to identify the first power adapter and the second power adapter; wherein the control device is adapted to map the first power adapter and the second power adapter based upon locations of the first power adapter and the second power adapter.

An electrical device with a conductor assembly having a conductor member and a nut. The conductor member has a wire cradle, a conductor body and a plurality of tab members. The wire cradle has a wire support portion and at least one crimp member extending from the wire support portion. The conductor body defines a terminal with a terminal face having a first hole formed therethrough. The wire cradle and the terminal face are disposed on opposite ends of the conductor body. Each of the tab members has a first portion, which is fixedly coupled to the conductor body, and a second portion that is coupled to the first portion and being spaced apart from the terminal. The tab members and the terminal form a cage. The nut is received in the cage and has a threaded aperture that is aligned to the first hole in the terminal face.

A novel connection terminal includes a housing, a contact assembly and a support member. The conductive clip is integrally bent and formed by spring steel plate, and two ends of a tongue forming section of the conductive clip are respectively connected to a supporting section and an approximately C-shaped cavity section by a pre-deformed elastic arch structure. Thus, the conductive clip and the bus bar form a clamping space in which the conducting wire can be more elastically crimped, ensuring that the conducting wire is firmly connected to the connection terminal assembly, allowing stable electrical connection between multiple conducting wires. The interior of the approximately C-shaped cavity section communicating with the wire passage enlarges the accommodating space for the conducting wire accordingly, facilitates the quick insertion of the conducting wire and provides more elastic and effective pressing force.

A surface mount connector comprises a bottom plate having a bottom wall, a conductive sheet disposed on the bottom plate and having a bottom portion running through the bottom wall and weldable to a PCB, a housing detachably disposed on the bottom plate and provided with a mounting hole corresponding to the conductive sheet, a conductive clamp disposed in the mounting hole, and a clamping piece portion adaptive to the conductive sheet disposed on the conductive clamp. The housing is capable of driving the conductive clamp to the bottom plate from top to bottom, so that the conductive sheet can insert into the clamping piece portion. The conductive clamp is electrically connected to the conductive sheet. The housing can drive the conductive clamp to detach from the bottom plate from bottom to top, so that the conductive clamp can disconnect from the conductive sheet.

Stator (10), electric machine (9), and method for manufacturing an electric machine (9), with a stator base body (34), which comprises radial stator teeth (14) for receiving an electric winding (20), wherein the electric winding (20) is connected to a separately manufactured connection plate (52), which comprises contacting modules (60) for the energizing of individual phases (U, V, W) of the electric winding (20), wherein electric conductor elements (54) are arranged in a radial plane of the stator (10) on the connection plate (52), which, on the one hand, are connected to winding wires (22) of the electric winding (20) and, on the other hand, carry the contacting modules (60), wherein the conductor elements (54) comprise a plurality of angled portions (56) within the radial plane, which make a spring-loaded compensation movement of the contacting modules (60) in the radial plane possible.

A cap (50) is mounted on a housing (22) for accommodating a device-side terminal connected to equipment and a wire-side terminal connected to a wire, the housing (22) being formed with a second opening (228) for exposing a connected part of the device-side terminal and the wire-side terminal, and is provided with a cap body (51) for closing the second opening (228) of the housing (22), locking portions (52) to be locked to outer side surfaces of the housing (22), and protection walls (53) for covering the locking portions (52) while being spaced apart from the locking portions (52).

An electrical plug connector for a coaxial or triaxial cable, wherein the cable includes an internal conductor, a first shielding conductor surrounding the internal conductor and extending coaxially with it, and optionally a second shielding conductor surrounding the first shielding conductor. The plug connector has a connector body, which includes an internal conductor contact element designed as a plug, socket, or coupling, for contacting with the internal conductor, an internal shield contact element provided for contacting with the first shielding conductor, and optionally an external shield contact element provided for contacting with the second shielding conductor. The connector body is configured such that the contact elements in the mounted condition of the plug connector are arranged on the cable such that a maximum diameter of the connector body is less than or equal to the outer diameter of the cable or only slightly larger than the outer diameter of the cable.

A plug-in power adapter is described. The plug-in power adapter may comprise a plug having a plurality of prongs, wherein a first prong of the plurality of prongs is adapted to receive power; a transformer coupled to receive the power from the first prong of the plurality of prongs, wherein the transformer generates a power signal on a power signal line coupled to the transformer; a plurality of contact elements accessible on the plug-in power adapter by a user of the plug-in power adapter; and a wireless communication circuit adapted to receive signals using a wireless communication protocol; wherein a contact element of the plurality of contact elements is adapted to receive a control signal.

Apparatuses and methods for testing electrical wiring of a device are provided. In one example, the device has a conductive portion, an electrical component, and a multiphase plug that is electrically coupled to a neutral conductor and at least two phase conductors. The neutral conductor is coupled to the conductive portion and the at least two phase conductors are coupled to the electrical component. The apparatus includes a receptacle that removably couples to the multiphase plug. A grounding cable removably couples to the conductive portion. A power supply generates power and is in electrical communication with the receptacle to communicate the power to the receptacle. An annunciator is in electrical communication with the power supply and the grounding cable and is configured to generate a response when the receptacle, the multiphase plug, the conductive portion, and the grounding cable are in electrical communication to communicate the power therethrough.

The disclosure discloses an optical controller socket with wrapping waterproof structure including a socket body with an opening at an inner hollow lower end, the lower end opening of the socket body is provided with an end cover, and an upper side of the end cover is fixedly installed with three clamping pieces disposed in the socket body, an upper side of the socket body is formed with plugholes respectively corresponding to three clamping pieces, and an outer side of an upper end of the socket body is wrapped with a waterproof sealing structure.