An information handling system dual axis hinge integrates a coaxial conductor and coaxial dielectric in a U-shaped sheath that provides first and second axles about which first and second bracket gears rotate. The coaxial conductor supports shielded and grounded signal communications between opposing portions of an information handling system housing. First and second torque brackets insert over the sheath and couple to the opposing housing portions to generate friction during housing rotation by interaction of the torque bracket rotating around the sheath.

A coaxial cable connector comprising a sleeve, nut, post, and annular flange is provided. The post is assembled to the nut, the annular flange to the post, and post, annular flange and nut to the sleeve. The nut has a plurality of nut sides, and a plurality of crests between the plurality of nut sides, each having a raised ridged pattern thereon. Each raised ridged pattern comprises a first plurality of grooves having a first groove helix angle and a second plurality of grooves having a second groove helix angle, intersecting the first plurality of grooves, forming a plurality of peaks. Following assembly, a plurality of deformed indentations is formed on an inner surface of the sleeve via the plurality of peaks of the nut.

A coaxial cable connector comprises an inner sleeve comprising a first and second outer flange; metal inner sleeve comprising a second inner ring having a ring portion and plurality of elastic portions and a first inner ring having a second inner flange and plurality of wings; an outer sleeve comprising a fourth inner flange and engaging bump; and a nut comprising a first inner flange and threaded portion adapted to engage with an electronic device. One end of the plurality of elastic portions is connected with the ring portion and the other end comprises a fifth outer flange. One end of the plurality of wings is connected to the second inner flange and the other end to the ring portion. When the outer sleeve moves toward the nut, the engaging bump presses and enables the fifth outer flange to move toward the outer surface of the inner sleeve.

An insert for a clamping device for clamping an armour layer of a cable in a cable gland is disclosed. The insert comprises a body (54) adapted to be received in a cable gland and defining an aperture (60) for receiving an inner part of a cable. A clamping portion (62) is adapted to engage an armour layer of the cable to clamp the armour layer between the clamping portion and a clamping member of the clamping device when the clamping member is arranged outwardly of the clamping portion. At least part of the clamping portion is displaceable inwards as a result of engagement of the clamping portion with the armour layer clamped between the clamping portion and the clamping member.

The present disclosure is directed to an internal conductor configured as a movable element, thereby providing a connector for preventing the occurrence of the breakdown or damage of a pin of a male connector.

A coaxial cable connector includes a nut housing having a rearward cable receiving end and a forward end opposite said rearward end, a front nut assembly coupled to the forward end of the nut housing, and a conductive metal tubular insert shaft supported within the nut housing or the front nut assembly. The front nut assembly includes an entry body housing and a conductive terminal pin extending from a forward end of the front nut assembly, and the conductive metal tubular insert shaft has a rearward end portion. A nonconductive plastic tubular support sleeve has a forward end portion coupled with the rearward end portion of the conductive metal tubular insert shaft, a tubular gripping ferrule radially surrounds the metal insert shaft and the plastic support sleeve, and a tubular outer sleeve radially surrounds at least a portion of said gripping ferrule. The gripping ferrule and the tubular outer sleeve are configured to be moved relative to one another in an axial direction such that the gripping ferrule and the tubular outer sleeve are configured to engage one another, thereby causing the gripping ferrule to radially compress around the conductive metal tubular insert shaft and the nonconductive plastic tubular support sleeve.

A connector for a coaxial cable includes a coupler configured to engage another coaxial cable connector, a body configured to be disposed at least partially within the coupler, and an outer conductor engager made of a conductive material disposed within the body and the coupler. An interior of the body includes a biasing element, and a compression sleeve is disposed at an opposite axial side of the outer conductor engager relative to the biasing element, The compression sleeve, the outer conductor engager, and the body are configured such that opposite axial forces applied to the compression sleeve and the outer conductor engager cause the outer conductor engager to move axially relative to one another and to cause the outer conductor engager to move axially relative to the body when the connector is coupled to the coaxial cable. The outer conductor engager is configured to be compressed by the biasing member when the outer conductor engager portion moves relative to the body such that an interior surface of the outer conductor engager portion is compressed radially inward against an outer conductor of the coaxial cable.

A coaxial cable connector comprises: an inner sleeve having a first outer flange and a first surface; a nut coaxially arranged with the inner sleeve, comprising a first inner flange and a threaded portion, the threaded portion of the nut engages with a threaded surface of a connector of an electronic device; a first inner ring coaxially arranged with the inner sleeve, comprising a ring portion and a plurality of elastic portions, one end of each of the plurality of elastic portions comprising a second outer flange disposed between the ring portion and the first outer flange; and an outer sleeve coaxially arranged with the first inner ring and the inner sleeve, wherein when the outer sleeve moves toward the nut, an engaging bump of the outer sleeve presses the second outer flange to enable the second outer flange to move toward the outer surface of the inner sleeve.

An arrangement for connecting a coaxial cable (500) to a connector, wherein the coaxial cable (500) comprises at least one metal braid layer (506) surrounding inner parts of the cable (500) and an outer insulating layer (508) surrounding said at least one metal braid layer (506); the connector comprises a ferrule (512) to be arranged in electrical contact with said at least one metal braid layer (506) and means (514, 516) for applying a pressure force (522) to the outer insulating layer (508) of the coaxial cable (500) in a position of said electrical contact; and a silicone sleeve (520) is arranged between said means (514, 516) for applying a pressure force (522) and the outer insulating layer (508) of the coaxial cable (500) in a position that, when said inner parts (502, 504) of the cable (500) are inserted within the ferrule (512), said pressure force (522) is applied to the silicone sleeve (508).

A coaxial cable connector includes a coupler portion configured to engage an interface port and having a rearward facing coupler surface, a body portion having a forward facing body surface, and a post portion having a rearward facing post surface. The post portion is configured to engage the body portion to form a space between the rearward facing post surface and the forward facing body surface when the connector is assembled. A grounding portion has a post contact portion configured to be located rearward from the rearward facing coupler surface so as to extend in the space when the connector is assembled and when the coupler portion engages the interface port so as to maintain physical and electrical grounding contact with the rearward facing post surface during operation of the connector, and a coupler contact portion configured to contact the rearward facing coupler surface during operation of connector.