A plug-in connector system includes: a first plug-in connector part and a second plug-in connector part, which are connectable to one another in a plug-in manner along a plug-in direction; and an encoding device having a first encoding part connectable to the first plug-in connector part and a second encoding part connectable to the second plug-in connector part. The first encoding part and the second encoding part are arrangeable together on the second plug-in connector in a pre-assembly position and the first encoding part is connectable with the first plug-in connector part during connecting of the first plug-in connector part and the second plug-in connector part and to remain on the first plug-in connector part during detaching of the first plug-in connector part and the second plug-in connector part from each other. One of the second plug-in connector part and the second encoding part has a locking section.

A connector device has a first connector including a male terminal which is rod-shaped, and a second connector including a female terminal to which the male terminal is electrically connected, in which the second connector includes an guide portion which is made of an insulating resin, the guide portion includes a hole portion for guiding the male terminal to the female terminal such that the hole portion is formed to have a diameter larger than an outer diameter of the male terminal, at least one groove portion is formed on an outer peripheral surface of the male terminal in an axial direction of the male terminal, and a protruding portion is provided on an inner peripheral surface of the hole portion, the protruding portion being inserted through the groove portion of the male terminal to be inserted into the hole portion and connected to the female terminal.

The present invention discloses a terminal stand that includes a base body, a movable part, a metal elastic part, a first signal element and a second signal element. The base body includes a first receiving slot and a second receiving slot. The metal elastic part is disposed in the first receiving slot. One end of the metal elastic member includes two first abutments. The first signal element is disposed in a second receiving slot. One end of the first signal element includes a first contact portion and a second abutment. The second signal element is disposed in the second receiving slot. When the movable member is pressed, the movable member drives the two first abutments to move, and the abutment drives the second abutment to move, with the first contact portion leaving the second contact portion, and the signal circuit is in an off-state state.

A relay socket providing an interface between a relay and a mounting structure comprises an upper section configured for mounting the relay, a lower section configured for mounting to the mounting structure, a plurality of mounting holes opening to an upper surface of the upper section and configured to receive a plurality of fastening elements of the relay, and a plurality of sleeve inserts configured to be fastened within the mounting holes, Each of the sleeve inserts surrounds a fixation member adapted to connect to the fastening elements.

A connector device has a first connector including a male terminal which is rod-shaped, and a second connector including a female terminal to which the male terminal is electrically connected, in which the second connector includes an guide portion which is made of an insulating resin, the guide portion includes a hole portion for guiding the male terminal to the female terminal such that the hole portion is formed to have a diameter larger than an outer diameter of the male terminal, at least one groove portion is formed on an outer peripheral surface of the male terminal in an axial direction of the male terminal, and a protruding portion is provided on an inner peripheral surface of the hole portion, the protruding portion being inserted through the groove portion of the male terminal to be inserted into the hole portion and connected to the female terminal.

A coaxial connector assembly includes a connector module having a connector body that includes contact cavities extending between a front side and a rear side of the connector body. The connector module has a cover having openings. Coaxial contacts are received in corresponding contact cavities each having a coaxial signal element and outer contact. The outer contact has a cable segment coupled to a coaxial cable and a mating segment. The cable segment has a front section and a rear section having a larger diameter than the front section and located rearward of the cover to receive the cable. The front section passes through the opening into the contact cavity to engage the mating segment. Biasing springs are located between the cover and the mating segment of the coaxial contact to bias the coaxial contact in the mating direction.

A system for transmitting a piece of information to a subunit, including at least one connection position and at least one subunit, the at least one connection position being configured for accommodating a subunit, and the at least one connection position including at least one coding lug which is configured for engaging into a corresponding recess on a subunit, the arrangement of the at least one coding lug coding the piece of information to be transmitted, and the at least one subunit having at least one recess which is configured for contactlessly detecting the presence of a coding lug in a recess.

A cable retention subsystem includes a frame member and at least one board coupling member that is located on the frame member and couples the frame member to a board. A frame alignment member is located on the frame member and aligns a cable connector included on a cable subsystem with a board connector included on the board when the frame alignment member is engaged with a cable alignment member included on the cable connector. The cable retention subsystem also includes at least one frame retention member located on the frame member that engages with the cable connector when the cable connector is coupled with the board connector, and resists movement of the cable connector in a direction that is substantially perpendicular to the board.

A cable connector clocking assembly for clocking and torqueing a cable connector. In one example, the clocking assembly has a socket adapter sub-assembly configured to be mounted in an adapter holder sub-assembly. The socket adapter sub-assembly includes a socket portion and an adapter portion having a generally cylindrical body portion secured to the socket portion with a fastener. The adapter portion also has at least one indicium configured to indicate a clock angle of a cable connector when the cable connector is connected to the socket portion. The clocking assembly also includes an adapter holder sub-assembly comprising a clamp portion and a face portion having indicia representative of different clock angles. The clamp portion has an unclamped configuration, wherein the socket sub-assembly can be rotated to a desired clock angle, and a clamped configuration, wherein the socket sub-assembly is securely retained in the clamp portion at the desired clock angle.

A cable retention subsystem includes a frame member and at least one board coupling member that is located on the frame member and couples the frame member to a board. A frame alignment member is located on the frame member and aligns a cable connector included on a cable subsystem with a board connector included on the board when the frame alignment member is engaged with a cable alignment member included on the cable connector. The cable retention subsystem also includes at least one frame retention member located on the frame member that engages with the cable connector when the cable connector is coupled with the board connector, and resists movement of the cable connector in a direction that is substantially perpendicular to the board.