Embodiments of a high-frequency electrical distributor device may have an input end with a connector of a first connector type, and an output end with at least two connectors of at least one second connector type which is different from the first connector type. Embodiments may further include a distributor region between the connector at the input end and the connector at the output end. The connector at the input end has at least two differential contact element pairs. The distributor region distributes the contact element pairs of the connector at the input end to the connectors at the output end.

Embodiments of a high-frequency electrical distributor device may have an input end with a connector of a first connector type, and an output end with at least two connectors of at least one second connector type which is different from the first connector type. Embodiments may further include a distributor region between the connector at the input end and the connector at the output end. The connector at the input end has at least two differential contact element pairs. The distributor region distributes the contact element pairs of the connector at the input end to the connectors at the output end.

A communication connector (10) includes a plurality of wires (11A to 11C, 12A, 12B, 13, 14) for transmitting communication signals, a plurality of terminals (20) connected to the respective wires (11A to 11C, 12A, 12B, 13, 14), a housing (30) for accommodating the respective terminals (20), and a conductive shield wall portion (40) arranged between the plurality of wires (11A to 11C, 12A, 12B, 13, 14).

A communication connector (10) includes a plurality of wires (11A to 11C, 12A, 12B, 13, 14) for transmitting communication signals, a plurality of terminals (20) connected to the respective wires (11A to 11C, 12A, 12B, 13, 14), a housing (30) for accommodating the respective terminals (20), and a conductive shield wall portion (40) arranged between the plurality of wires (11A to 11C, 12A, 12B, 13, 14).

A male connector, including a male conductive base (MCB), having at least two first through-holes, including at least two shielding sleeves fastened on the male conductive base and electrically connected to the male conductive base, where each shielding sleeve defines a front-to-back through shielding cavity connected to a corresponding first through-hole of the at least two first through-holes, and further including at least two male differential pairs, wherein each male differential pair of the at least two male differential pairs is fastened in the shielding cavity through at least one of the at least two first through-holes, and where each male differential pair is electrically insulated from the male conductive base and the shielding sleeve.

The invention concerns a connector-type socket comprising: —a body suitable for being connected via a front face to a complementary plug comprising a plurality of insulation-displacement contacts oriented in the same direction; —a separate connection module comprising a plurality of positions each intended to receive one end of a strand of a cable comprising shielding, the module being arranged in such a way as to be inserted into the body so as to bring each strand against the corresponding insulation-displacement contact; the socket being characterised in that the body comprises two separate parallel plates, each plate comprising a row of contacts, each row of contacts being arranged in a plane (P), the planes (P) containing the rows being separate from and parallel to each other such that all the strands of the cable can be connected in a single movement.

The invention concerns a connector-type socket comprising: —a body suitable for being connected via a front face to a complementary plug comprising a plurality of insulation-displacement contacts oriented in the same direction; —a separate connection module comprising a plurality of positions each intended to receive one end of a strand of a cable comprising shielding, the module being arranged in such a way as to be inserted into the body so as to bring each strand against the corresponding insulation-displacement contact; the socket being characterised in that the body comprises two separate parallel plates, each plate comprising a row of contacts, each row of contacts being arranged in a plane (P), the planes (P) containing the rows being separate from and parallel to each other such that all the strands of the cable can be connected in a single movement.

An electrical connector for connecting a plurality of conductor pairs is provided. The electrical connector has a plurality of conductor pairs. The electrical connector has a metal housing. The metal housing comprises or defines a first region and a second region. Each conductor pair of the plurality of conductor pairs extends through the first region and the second region. The first region is provided with an electrically conductive potting compound.

An electrical connector for connecting a plurality of conductor pairs is provided. The electrical connector has a plurality of conductor pairs. The electrical connector has a metal housing. The metal housing comprises or defines a first region and a second region. Each conductor pair of the plurality of conductor pairs extends through the first region and the second region. The first region is provided with an electrically conductive potting compound.

A coaxial connector device includes a first signal contact member joined to a central conductor of a first coaxial cable, a second signal contact member joined to a central conductor of a second coaxial cable, a ground contact member has an annular fitting portion arranged around the first and second signal contact members and is joined to the outer conductors of the respective first and second coaxial cables, and a flat partition provided with a ground potential and located between the first signal contact member and the second signal contact member.