An electronic assembly including a first device, a second device, a third device, and a triggering member is provided. The first device has at least one first positioning member, at least one first electrical connector, and at least one second electrical connector. The second device has at least one second positioning member and at least one third electrical connector. The third device has at least one fourth electrical connector. The triggering member is disposed in the third device. The triggering member has a driven portion and a locking portion opposite to each other. In a first state, the first device is detachably assembled and electrically connected to the second device. In a second state, the first device is detachably assembled and electrically connected to the second device, and the first device is also detachably assembled and electrically connected to the third device.

This disclosure provides a method and apparatus for connecting and disconnecting a first wire to a second wire. More specifically, an apparatus that includes a first electrical contact, a second electrical contact, an insulated housing, and a male contact prong (i.e., a shunt) is disclosed. In an embodiment, the first and second electrical contacts conductively connect with a first and second wire, respectively, via an insulation displacement connector. Furthermore, the male contact prong conductively connects (i.e., shunts) the first and second electrical contacts together. A wire-to-wire contact with shunt allows for two wires to be quickly and efficiently connected and disconnected.

A connector housing adapted to receive a contact comprises a first latch disposed on a top surface of the housing and having a first pressing part and a first extension portion formed on the first pressing part and a second latch disposed on the top surface of the housing and having a second pressing part and a second extension portion formed on the second pressing part. The first latch and the second latch are disposed side by side on the top surface and are adapted to lock to a case of a mating connector. The first latch and the second latch are unlocked by pressing down the first pressing part and the second pressing part. The first extension portion and the second extension portion are disposed adjacent to each other.

An electrical connector system includes a connector with a plug. A shroud extends over a portion of the plug and is coupled with the plug. A conductive socket is configured for receiving the plug of the connector. The socket includes a groove formed on an outer surface thereof. The shroud includes spring fingers having a lock portion thereon configured for engaging the groove for securing the connector in the socket. A collar is slidably mounted on the conductive socket and is configured for sliding between a locked position proximate to the socket groove and an unlocked position. The collar is further configured for engaging the spring fingers of the connector shroud in the locked position to hold the finger lock portions engaged with the groove to lock the connector in the socket.

An electrical train coupling having two coupling halves, each including at least one electrical contact element, which is electrically contactable with an electrical contact element of the particular other coupling half, including one electrical connection per coupling half. At least one electrical contact element of at least one coupling half is supported by a decoupling element movable against the force of a force accumulator at least also along a coupling direction of the coupling halves, the decoupling element, in a coupled state of the two coupling halves, being moved against the force of the force accumulator into an electrically conductive contact of the electrical contact element with the electrical connection of the coupling half and, in a decoupled state of the two coupling halves, moved by the force of the force accumulator with the electrical contact element, being lifted off of the electrical connection to disconnect the electrically conductive contact to the electrical connection.

An arc prevention system including a jack having a receptacle, a modular plug sized to be positioned in the receptacle of the jack, the modular connector including, a plurality of contacts, with at least two of the contacts creating an energized electrical path with an external power source in electrical communication with the external power source, a latch extending from a top surface of the modular plug, a switching unit positioned on the latch, a control circuit in electrical communication with the switch and the at least two energized contacts, where the electrical path between the control circuit and the switching unit is not energized, and the control circuit adjusts the energized electrical path to a predetermined electrical level.

An electrical connector system with a receptacle and plug. The receptacle has a metal housing encircling an insulative housing. A side wall of the metal housing is separated from a corresponding side wall of the insulative housing, leaving a groove. The plug has a wall, extending from an insulative housing of the plug, parallel to a paddle card. The metal housing may be shaped to engage with the wall during mating of the plug and receptacle, facilitating alignment of the paddle card and plug interface of the receptacle. The wall may also carry latching components, which may latch to corresponding features of the metal housing, reducing the height of the mated connectors in comparison to configurations in which the latching components are mounted to the insulative housing of the plug. The receptacle housing may have asymmetric support parts, providing support in a compact space.

A novel, interlocking, snap-fit connection between an antenna aperture and a ground plane layer that contains coaxial connectors is described herein. The snap-fit design provides a simple and solderless transition from the connectors to elements of the antenna aperture. This design facilitates easy assembly and disassembly, allowing parts to be removed, reinstalled and/or reused.

A plug connector includes: a housing module having a mating end and including a first housing and a second housing assembled with the first housing to define a cavity therebetween; and a mating board received in the cavity and exposed to an exterior at a position close to the mating end; wherein the first housing has a main portion and a tongue extending from the main portion, the second housing has a receiving space receiving the tongue, and the tongue is deformed to latch within the receiving space.

A push-button equipment includes a pressel; a mounting collar for being installed on a base, such as a button panel, the mounting collar including a seat for receiving the pressel; the pressel including a pressing face for receiving a press of a user and being insertable in the seat of the mounting collar in a forward direction orthogonal to the pressing face. The pressel is movable in the seat into a locked position by rotating it in the seat around a rotational axis extending in said direction orthogonal to the pressing face. In said locked position the collar blocks the pressel from moving in backwards direction orthogonal to the pressing face out from the seat. A pressel for the push-button equipment and a push-button arrangement of an elevator are also disclosed.