A connector includes: a spring structure having a spring property as a result of being constituted by a conducting wire wound spirally, and functioning as a coil having an inductance component; a support member to support one end of the spring structure, and to connect the one end of the spring structure to a wiring pattern provided on a board; and a support member to support the other end of the spring structure, and to electrically connect the other end of the spring structure to an electric wire.

An EMI filtering, coaxial power connector may be formed as an inline component or a port of a device. The connector may have dimensions to accept F-type coaxial connectors. The connector includes a conductive outer shell with a first opening and a second opening. A dielectric member is disposed within the shell. A conductive pin is supported by the dielectric member. A feed-through capacitor has a central opening and a first lead formed within the central opening. The pin is electrically connected to the first lead. A second lead of the capacitor is formed at an outer perimeter of the capacitor and is electrically connected to the shell. A metal plate is mounted within the shell. The plate is disk-shaped with a central hole. An outer perimeter of the plate is in electrical contact with the shell. The pin passes through the central hole without making electrical contact with the plate, and the plate resides between the second opening of the shell and the capacitor.

There is provided a coaxial connector that can suitably bias a movable insulator to the side of a socket and maintain matched impedance. The coaxial connector includes a movable insulator that is fitted in a central conductor so as to be slidable and is housed in an insulator housing so as to be movable in an axial direction; and a biasing rubber member that is interposed between a partition disposed in the recesses of the insulator housing and the movable insulator. When the biasing rubber member connects the socket to the plug, the movable insulator is pushed in by a pushing force from a socket, and elastic pillars are bent in an arc shape.

There is provided a coaxial connector that can suitably bias a movable insulator to the side of a socket and maintain matched impedance. The coaxial connector includes a movable insulator that is fitted in a central conductor so as to be slidable and is housed in an insulator housing so as to be movable in an axial direction; and a biasing rubber member that is interposed between a partition disposed in the recesses of the insulator housing and the movable insulator. When the biasing rubber member connects the socket to the plug, the movable insulator is pushed in by a pushing force from a socket, and elastic pillars are bent in an arc shape.

The present invention relates to a cable arrangement comprising a cable that has an outer conductor, and an outer-conductor contact element that is electrically connected to the outer conductor and has a diameter change. In a region of the diameter change, the cable arrangement also has a filling element, which is electrically conductive. The filling element is configured to reduce an air inclusion in the region of the diameter change.

The present invention relates to a cable arrangement comprising a cable that has an outer conductor, and an outer-conductor contact element that is electrically connected to the outer conductor and has a diameter change. In a region of the diameter change, the cable arrangement also has a filling element, which is electrically conductive. The filling element is configured to reduce an air inclusion in the region of the diameter change.

A torque transmitter includes a filter header configured to support a filter component. The torque transmitter also includes a torque-transmitting housing configured to at least partially enclose the filter header. The torque-transmitting housing is configured to receive a torque force from an installation tool, and to transmit the torque force to the filter header.

A torque transmitter includes a filter header configured to support a filter component. The torque transmitter also includes a torque-transmitting housing configured to at least partially enclose the filter header. The torque-transmitting housing is configured to receive a torque force from an installation tool, and to transmit the torque force to the filter header.

A high frequency signal feed through by which the ends of an input side coaxial cable and an output side coaxial cable, to be connected to each other, each comprising an interior conductor and an exterior conductor surrounding the interior conductor, are coupled to each other, showing a housing, a preferably pressure-resistant signal feed through arranged in the housing for the interior conductor, with the interior conductor being coupled at a conductive structure, arranged preferably centrally in the housing and capable of handling high frequencies, with at least one element for the galvanic separation being arranged between an input side and an output side, with the housing showing the structure for the galvanically separated coupling of the exterior conductor.

A high frequency signal feed through by which the ends of an input side coaxial cable and an output side coaxial cable, to be connected to each other, each comprising an interior conductor and an exterior conductor surrounding the interior conductor, are coupled to each other, showing a housing, a preferably pressure-resistant signal feed through arranged in the housing for the interior conductor, with the interior conductor being coupled at a conductive structure, arranged preferably centrally in the housing and capable of handling high frequencies, with at least one element for the galvanic separation being arranged between an input side and an output side, with the housing showing the structure for the galvanically separated coupling of the exterior conductor.