A bayonet type locking ring of a circular electrical connector. A first piece with the shape of a cylindrical ring extends from one end to the other. The first piece is made of thermoplastic material, and includes notches distributed over the internal face of the first piece adjacent to one end and a first ramp part on the internal face of the first piece. A second piece with the shape of a cylindrical ring, and includes notches distributed over its external face and a second ramp part on the internal cylindrical surface. The first piece and the second piece are assemblable such that the notches of the second piece fit in the notches of the first piece, and prevent the second piece from rotating in relation to the first piece. The second ramp part of the second piece complements the first ramp part of the first piece.

A bayonet type locking ring of a circular electrical connector. A first piece with the shape of a cylindrical ring extends from one end to the other. The first piece is made of thermoplastic material, and includes notches distributed over the internal face of the first piece adjacent to one end and a first ramp part on the internal face of the first piece. A second piece with the shape of a cylindrical ring, and includes notches distributed over its external face and a second ramp part on the internal cylindrical surface. The first piece and the second piece are assemblable such that the notches of the second piece fit in the notches of the first piece, and prevent the second piece from rotating in relation to the first piece. The second ramp part of the second piece complements the first ramp part of the first piece.

Embodiments herein include a connector coupling arranged to mate and/or unmate first and second connectors. The connector coupling includes a first collar having one or more locking members, a second collar arranged to receive the first collar, the second collar being rotatable relative to the first collar, and a locking mechanism. The connector coupling is moveable in a mating direction to mate the first and second connectors and an unmating direction to unmate the connectors. The locking mechanism is disengaged when the connector coupling is moved in a mating direction. For example, the locking mechanism may be moveable from a first engaged position to a first disengaged position when the connector coupling is moved in the mating direction. As another example, the locking mechanism may remain disengaged until the connectors are fully mated.

Embodiments herein include a connector coupling arranged to mate and/or unmate first and second connectors. The connector coupling includes a first collar having one or more locking members, a second collar arranged to receive the first collar, the second collar being rotatable relative to the first collar, and a locking mechanism. The connector coupling is moveable in a mating direction to mate the first and second connectors and an unmating direction to unmate the connectors. The locking mechanism is disengaged when the connector coupling is moved in a mating direction. For example, the locking mechanism may be moveable from a first engaged position to a first disengaged position when the connector coupling is moved in the mating direction. As another example, the locking mechanism may remain disengaged until the connectors are fully mated.

A slide connector has a garment-side connector portion and a module-side connector portion to be fitted with the garment-side connector portion in a fitting plane, the garment-side connector portion including first contact portions each having a contact surface parallel to the fitting plane and at least one locking portion having a locking surface parallel to the fitting plane, the module-side connector portion including second contact portions each elastically movable and at least one portion to be locked extending in parallel to the fitting plane, as the module-side connector portion is superimposed on the garment-side connector portion and slid along the fitting plane, each second contact portion comes into contact with the contact surface of a corresponding first contact portion to establish electrical connection, and the at least one portion to be locked domes into contact with the locking surface of the at least one locking portion.

A self-locking connector provides an electrical connection between sources, equipment, devices, and the like. The self-locking connector generally includes first and second connector components with first and second housings that include corresponding electrically conductive elements, first and second magnetic elements, and first and second lock elements. One housing includes stationary and movable housing components. The connector components are brought into a coupled state with the corresponding electrically conductive elements providing an electrical connection. As the connector components are brought into the coupled state, the movable housing component automatically moves and brings the locking elements into locked engagement. The magnetic elements urge the connector components in the coupled state and the locking elements in locked engagement. The movable housing component is manually moved to bring the lock components out of locked engagement and the connector components out of the coupled state to break the electrical connection.

An electronic connector includes a housing and a plug extending from the housing. The plug includes at least one flexible region that provides flexing of the plug. In some example embodiments, the plug also includes at least one rigid region. The plug has at least one interconnect. Each interconnect includes a lead and a contact. The contacts are exposed on an exterior surface of the plug, such exposure being provided so as to enable electrical coupling between the plug and an electronic receptacle into which the plug may be removably inserted.

A distribution automation device for receiving a plug connector includes a housing having a socket at least partially receiving the plug connector. The socket has a locking feature engaging a complementary locking feature of the plug connector. The locking feature and the housing are formed integrally with one another as a monolithic unit.

A distribution automation device for receiving a plug connector includes a housing having a socket at least partially receiving the plug connector. The socket has a locking feature engaging a complementary locking feature of the plug connector. The locking feature and the housing are formed integrally with one another as a monolithic unit.

A cable locking device includes a first part and a second part. The first part includes a first cavity for receiving a first electrical wire and a second cavity. The second part includes a first cavity for receiving a second electrical wire and a projection. The projection is configured to be inserted into the second cavity of the first part. A first channel is formed within the second cavity of the first part and extends from an opening of the second cavity. A second channel is formed within the second cavity of the first part and is connected to the first channel and extends in a transverse direction of the first channel. A pin is formed on the projection of the second part and is configured to fit within the first channel and the second channel of the first part. The pin is configured to engage sidewalls of the second channel so as to frictionally hold into place the pin with respect to the second channel to connect the first part to the second part.