A coaxial cable connector assembly comprising a rear body comprising an outer body member and an inner body member, wherein the rear body is positionable in a disengaged position and an engaged position, and a coupler rotatably engaged with and positioned forward of the rear body, wherein the coupler defines an inner channel extending through the coupler between a front portion of the coupler and a rear portion of the coupler positioned opposite the front portion, a thread at the front portion of the coupler, a nominal portion defining a nominal inner span along the inner channel, and an outer conductor engagement portion that tapers inwardly from the nominal portion that extends forwardly along the inner channel to the front portion of the coupler, wherein the outer conductor engagement portion is structurally configured to contact an outer conductor of the coaxial cable.

A torque sleeve includes sleeve body configured to extend along an axis. The sleeve body is further configured to at least partially receive a coupling member of a coaxial cable connector. The sleeve body has an outer surface configured to permit a user to tighten the coupling member to an interface port up to a first torque, and the sleeve body includes a pair of opposed cutouts configured to receive a tightening tool so as to permit the tightening tool to grip the coupling member and tighten the coupling member to an interface port up to a second torque, the second torque being greater than the first torque.

A shielding electrical terminal is presented herein. The shielding electrical terminal includes a securing portion that is configured to attach to an outer shield conductor of a shielded cable and a cylindrical mating portion having an inner surface configured to make electrical contact with a corresponding cylindrical shield terminal inserted within the mating portion. The inner surface of the mating portion defines a plurality of protrusions that extend from the inner surface.

A sealing grommet for a sealed feedthrough of a strand-shaped element through a wall, in particular for a cable feedthrough for the automotive sector, is configured for insertion in an installation direction into an opening, bordered by the wall and with a predefined opening width. The sealing grommet has a grommet body with a push-through area which extends in the installation direction and which is fed through the opening in the installation direction during installation, in such a way that it engages behind the wall in the installed state. An auxiliary element facilitating the insertion into the opening is provided, which has a circumferential sliding area containing at least one sliding surface, and wherein the at least one sliding surface bears at least partially on a circumferential surface of the push-through area.

A connector is provided for attachment to a coaxial cable. The connector includes, in one embodiment, a connector body and a locking sleeve. The locking sleeve is configured to be moved between an attached and a detached state. In each such state, the locking sleeve is configured to receive the end of the cable. In one position, the locking sleeve is configured to lock the end of the cable to the connector body.

A hardline connector for providing high frequency performance includes a body portion configured to be coupled with an interface port. The body portion is configured to house a collet and an insulator, the collet includes a pin portion and a gripping portion that is configured to receive a center conductor of a hardline coaxial cable, and the gripping portion is configured to define a forward facing surface at a forward end of the gripping portion of the collet. The body portion is configured to minimize peaks and valleys of impedance levels within the connector relative to a desired 75 ohm impedance such that the hardline connector is configured to improve return loss performance over a wider frequency bandwidth without degrading electrical, mechanical, and environmental performance of the connector by minimizing peaks and valleys of impedance levels within the connector relative to a desired 75 ohm impedance. The hardline connector is configured to achieve a return loss of −20 dB or better over a frequency range of 5 MHz to 3 GHz.

A connector includes: (i) an inner conductor engager comprising at least one tab being flexible to define an opening engager, (ii) a driver configured to drive the inner conductor engager to a desired position along the inner conductor, and (iii) a housing coupled to the inner conductor engager. The opening is configured to receive an inner conductor of a coaxial cable and extends through the entire inner conductor engager thus allowing the inner conductor to electrically connect to an interface port.

The device allows simple ground contacting of the shielding of a coaxial line, in particular a parallel ground contacting. For this purpose the connection holder has a housing for receiving preferably multiple coaxial lines which are fed through the housing in a parallel manner. A ground contacting strip lies in the housing, and the shieldings of the coaxial lines, which are stripped in a contact region, are placed against the ground contacting strip and clamped thereagainst.

A connector includes: (i) an inner conductor engager comprising at least one tab being flexible to define an opening engager, (ii) a driver configured to drive the inner conductor engager to a desired position along the inner conductor, and (iii) a housing coupled to the inner conductor engager. The opening is configured to receive an inner conductor of a coaxial cable and extends through the entire inner conductor engager thus allowing the inner conductor to electrically connect to an interface port.

A high voltage vertical disk ferrule, and method for assembling thereof, the ferrule being stamped and having a vertical disk-like structure, which is not necessarily round or does not necessarily have any roundness. The high voltage vertical disk ferrule has an opening residing and traveling over the wire core and/or a wire braided shield, to which an end portion of the wire braided shield is affixed to the ferrule, or between two ferrules, such that a portion of the wire braided shield is flared and substantially perpendicular to the direction along which the wire core extends. The high voltage vertical disk slides over the core insulation, and towards the outer insulation when the wire is pushed. The wire braided shield develops a natural spring force against the ferrule, and causes it to be accordioned, pleated, or folded against itself, and therefore pushes the vertical disk ferrule forward.