3123results about "Relieving strain on wire connection" patented technology

A compression connector for coupling an end of a coaxial cable and method of use is discussed. The connector includes a post, configured to be inserted into an end of the coaxial cable around the dielectric and under the protective outer jacket thereof. The device further includes a connector body, operatively positioned with respect to the post and including a plurality of closeable fingers, a fastener member, slidably receivable with respect to the connector body for closing the closeable fingers and for securing, in both directions, axial movement of the fastener member with respect to the connector body, an outer compression sleeve, and a threaded nut, engageable with the outer compression sleeve for securely coupling the hand installable compression connector to a coaxial cable interface port. An advantage of this connector is installation without the need for specialized tools.

In one embodiment of the invention, there is disclosed an electrical connector connectable to a printed circuit board, the electrical connector having an insulative housing including side walls and a base. The electrical connector also includes signal conductors and ground conductors. Each of the signal conductors and ground conductors has a first contact end connectable to the printed circuit board, a second contact end, and an intermediate portion therebetween that is disposed in the base of the insulative housing. The signal conductors and the ground conductors are arranged in a plurality of rows, with each row having signal conductors and ground conductors. For each of the plurality of rows, there is a corresponding ground strip positioned adjacent thereto disposed in the base of the insulative housing. And the ground strip is electrically connected to the ground conductors of the row.

A battery is inside an enclosure. A shim is inserted between the battery and at least one contact. The shim can be actuated externally without requiring the enclosure to be opened. The shim may be conductive on at least one face to provide a switch function, or may be non-conductive.

An accommodation apparatus facilitates the attachment, exchange, operation, and wire configuration of a plurality of communication devices, such as a media converter, and a power unit. The accommodation apparatus comprises a support part fixed to an external frame, and a loading part, movable relative to the support part. The loading part removably accommodates the communication devices, and includes a first surface and a second surface, wherein the transmission medium can be connected to the communication devices through the first and second surfaces.

To provide a suspension board with circuit that enables its terminals to be bonded to the other terminals with sufficient strength with simple structure, to ensure sufficient bonding reliability, the suspension board with circuit 11 includes a suspension board 12, a base layer 13 formed on the suspension board 12, and a conductive layer 14 formed on the base layer 13 and a cover layer 18 with which the conductive layer 14 is covered, wherein external connection terminals 17 to be bonded to terminals 28 of a read / write board 29 are formed without the suspension board 12 and / or the base layer 13 being formed.

The receiver unit includes a receiver body, a housing containing this receiver body, a cord connected to the receiver body, and a cord protector for protecting the cord. The cord protector is a plate-like member having a substantially rectangular shape, and includes an engaging portion and a semicircular portion. The cord protector is formed of soft material such as urethane rubber having Shore hardness of about A90, and its wall thickness is set to be 0.3 to 0.6 mm (0.5 mm, for example).

A connector for coaxial cable is disclosed herein that has an outer body, the outer body has at least one thread on a rearward portion thereof, and tubular post having at least one projection thereon. The outer body and the tubular post are movable relative to one another to compress a portion of the coaxial cable in the connector and to draw the braided shield of the coaxial cable into the connector. The present coaxial connector accommodates coaxial cables with larger amounts of braided shielding. A related method for connecting the coaxial cable and connector is also disclosed.

A pivoting strain relief bar assembly that is comprised of a patch panel rotatably coupled to a strain relief bar, where the patch panel and strain relief bar are also coupled to a conventional rack capable of supporting telecommunications or other electronic equipment. Cables that are to be terminated to the patch panel are secured to and supported by the strain relief bar. The strain relief bar is capable of locking in a substantially horizontal position and thus remains fixed while supporting a large number of network cables. The strain relief bar can also be unlocked and rotated, allowing a technician to access the patch panel without having to unnecessarily disconnect cables.

A connector family that has a central housing having a connector mating face and a board mounting interface. An outer shell is shaped to fit over the central housing. The outer shell at least partially encloses the board mounting interface and exposes the connector mating interface of the central housing. The outer shell has a cable interface that is configured to be joined to a cable. Contacts are held in the central housing. The contacts, central housing and outer shell are used in different configurations depending upon the application. In a first application, the outer shell is mounted over the central housing to form a first configuration. In a second application, the outer shell is removed to expose the board mounting interface on the central housing to form a second configuration.

An assembly for providing a weatherproof feedthrough for data communications cables into a structure. The assembly includes a unique housing having a cavity for removably receiving a connector attached to a terminal end of a cable in a fixed orientation. The cable attached to the connector in the cavity exits the assembly into a protected side of the structure. A cable from the unprotected side of the structure enters the assembly such that a connector disposed on its terminal end may be connected to the connector in the cavity. The assembly is particularly suited to allow off the shelf connectors to be used within the housing. The assembly may include strain relief devices for protecting the cables attached to the connectors.

A coaxial connector includes a body, a post, a coupling nut, and a sealing member. The sealing member is axially compressed between a rear end facing surface of the coupling nut and a front end facing surface of the hollow body in order to facilitate improved grounding and RF shielding characteristics.

A connector for electrical or optical conduits that provides a field configurable keying of the insulator plugs relative to each other and relative to the connector casings. A separate relative keying means is included that is separate from the case keying or locating mechanism. The connector also utilizes a retention means for example, a one-way snap apron, to retain the insulator within the receptacle case.

A pivoting strain relief bar assembly that is comprised of a patch panel rotatably coupled to a strain relief bar, where the patch panel and strain relief bar are also coupled to a conventional rack capable of supporting telecommunications or other electronic equipment. Cables that are to be terminated to the patch panel are secured to and supported by the strain relief bar. The strain relief bar is capable of locking in a substantially horizontal position and thus remains fixed while supporting a large number of network cables. The strain relief bar can also be unlocked and rotated, allowing a technician to access the patch panel without having to unnecessarily disconnect cables.

A coaxial cable connector includes a connector body having a rearward cable receiving end, a locking sleeve movably coupled within the rearward cable receiving end of the connector body for locking the cable in the connector and a gripping ferrule disposed between the connector body and the locking sleeve. The gripping ferrule includes axially opposite gripping ends which move in a radially inward direction upon compression between the locking sleeve and the connector body to grip the outer surface of the cable.

An electrical connector assembly includes a connector housing holding a plurality of electrical contacts and a backshell including a backshell housing having a connector receiving end and a cable exit end. The connector housing is coupled to the connector receiving end of the backshell housing. A plurality of organizing elements are within the backshell housing. The organizing elements are arranged in a transverse row within the backshell housing. The organizing elements are configured to receive and support a plurality of electrical cables arranged in first and second transverse rows. The first and second rows are in a tiered relationship with one another and the electrical cables are transversely offset from one another.

A cable assembly (1) includes an insulative housing (2) having a base portion (21) and a tongue portion (22) extending forwardly from the base portion; a plurality of contact members supported by the insulative housing; a metal shell (8) having a tube-shaped mating frame enclosing the tongue portion therein; a cable (5) including a number of wire members for connecting to the contact members, a plurality of strength members (54) and an insulative jacket (55) enclosing the wire members and the strength members, and partial of front segment of the jacket removed away to have the strength members exposed outside; and a connection member (9) including a first engaging portion (91) connected to a second engaging portion (92), said strength members made into a strand and gripped by the first engaging portion, and said the second engaging portion securely attached to the metal shell.

A cable connector is provided that has a connector housing that is thin and takes the form of a wafer. Terminals are held within the housing and termination portions extend lengthwise from the terminals. The termination portions extend out from the housing for terminating bare conductors of signal wires to them. A grounding shield is provided that extends over the signal terminals from their contact portions at the front end of the connector to their rear termination portions. The grounding shield thereby provided a ground extent over the termination area that increases the electrical affinity of the signal wires to the grounding shield so as to reduce crosstalk and noise during operation at high frequencies. In one embodiment, the grounding shield includes a separate extension that is connected to the base grounding shield. In another embodiment, the grounding shield has a length sufficient to extend over the termination area.

The invention provides a charging device for an electric vehicle, which comprises a power supply connector, a power receiving connector, a safe charging signal generating unit and a CAN control module, wherein the power supply connector is provided with one of a charging terminal and a charging terminal accommodating chamber; the power receiving connector is provided with the other one of the charging terminal and the charging terminal accommodating chamber; the safe charging signal generating unit is arranged on the charging device; the CAN control module receives a safe charging signal generated by the safe charging signal generating unit; and when the charging terminal and the charging terminal accommodating chamber are mutually connected and the power supply connector, the power receiving connector are mutually combined and the CAN control module detects the safe charging signal, the charging device charges the electric vehicle. The charging device adopts a double-insurance structure combining a mechanical structure and a CAN control module, so safety hazards caused by accidents, misoperation and the like to operators are avoided.

A dual orientation connector having a connector tab with first and second major opposing sides and a plurality of electrical contacts carried by the connector tab. The plurality of contacts includes a first set of external contacts formed at the first major side and a second set of external contacts formed at the second major side. The first plurality of contacts are symmetrically spaced with the second plurality of contacts and the connector tab is shaped to have 180 degree symmetry so that it can be inserted and operatively coupled to a corresponding receptacle connector in either of two insertion orientations.

The present invention provides a connecting device which has a connecting portion capable of rotatably connecting two housing portions without protruding from the two housing portions and can stably keep the housing portions arranged so as to face each other.The connecting device includes; first and third connecting members 31 and 33 which have flexibility and foldably connects an upper housing portion 1 and a lower housing portion 2 with a predetermined gap interposed therebetween; and a second connecting member 32 which has enough restoring force and rigidity to restore a bent state to an unbent state and is curved in an arc shape in sectional view such that a concave portion of the arc is oriented in a direction where the upper and lower housing portions are folded.

An LED light engine includes a flexible electrical cable and a plurality of LEDs. The flexible electrical cable includes first, second and third electrical conductors and an electrically insulating covering for the electrical conductors. The conductors are arranged substantially parallel with one another having an insulating material therebetween. A first LED including a first lead electrically connects to the first electrical conductor and a second lead of the first LED electrically connects to the second conductor. A second LED includes a first lead electrically connected to the second electrical conductor and a second lead electrically connected to the third electrical conductor. A third LED includes first and second leads electrically connected to the second conductor. The third LED is interposed between the first LED and the second LED.

A busbar assembly for electrically connecting a plurality of conductors includes a housing defining an interior cavity and first and second ports. The first and second ports each include a conductor passage and communicate with the interior cavity. The conductor passages are each adapted to receive a conductor therethrough. An electrically conductive busbar conductor member is disposed in the interior cavity. At least one holding mechanism is provided to selectively secure each of the conductors to the busbar conductor member for electrical contact therewith. Sealant is disposed in the conductor passages of each of the first and second ports. The sealant is adapted for insertion of the conductors therethrough such that the sealant provides a seal about the inserted conductors. The sealant may be a gel.

A tube-shaped shielding member is configured to enclose a plurality of wires collectively. The tube-shaped shielding member includes: a main shield portion made of a metal pipe; and a sub-shield portion formed shorter than the main shield portion and configured to be deformable, to thereby protect the wires from objects such as bounced stones.

A dual orientation connector having a connector tab with first and second major opposing sides and a plurality of electrical contacts carried by the connector tab. The plurality of contacts includes a first set of external contacts formed at the first major side and a second set of external contacts formed at the second major side. The first plurality of contacts are symmetrically spaced with the second plurality of contacts and the connector tab is shaped to have 180 degree symmetry so that it can be inserted and operatively coupled to a corresponding receptacle connector in either of two insertion orientations.

A male compression-type coaxial cable connector having a compression sleeve slidingly disposed within an axial conduit within a connector body. The prepared end of the coaxial cable is inserted through the compression sleeve and advanced into the connector body. Subsequent advancement of the compression sleeve within the axial conduit, with the assistance of a compression tool, forces the deformable leading end of the compression sleeve radially inward to compress the cable jacket and braid thereby providing secure attachment of the connector to the cable. In a first embodiment, the compression sleeve is removable and can be replaced with another compression sleeve having a different inner diameter to accommodate a variety of coaxial cables. In a second embodiment, the compression sleeve is permanently attached to the connector. Advancement of the compression sleeve forces a separate compression ring disposed within the conduit forwardly, the compression ring deforming inwardly during advancement to affix the cable to the connector. In a third embodiment, the barb, which is disposed on the trailing end of prior art shanks, is disposed forward of the trailing end of the shank.

A connector assembly includes a center contact configured to be terminated to a center conductor of a cable. A dielectric holds the center contact. A stamped and formed outer contact surrounds the dielectric and the center contact. The outer contact is configured to be terminated to a braid of the cable. A stamped and formed outer ferrule surrounds at least a portion of the outer contact such that the braid is sandwiched between the outer ferrule and the outer contact.

A coaxial connector for attaching the end of a coaxial cable to an equipment port includes a tubular post, a coupler, a body member having a cylindrical sleeve, and one or more reservoirs containing a chemical component disposed between the post and the cylindrical sleeve. Insertion of the coaxial cable into the connector opens the reservoir, releases the chemical component, and secures the jacket of the cable within the cylindrical sleeve. The chemical component(s) can include an adhesive, a volume-expanding material, and / or an agent that swells the jacket of the cable. Two or more chemical components may be stored in two or more adjacent reservoirs.