Abstract:
A fiber optic cable includes an optical fiber element including a core and cladding layer. A strength member layer is positioned over the optical fiber element and includes a layer of fiber elements composed of at least 25% high temperature fiber material. An outer jacket layer is positioned over the strength member layer and is formed of a highly flame-resistant material.
Abstract:
An electrical connector contact has a body for receiving a conductor and for receiving a male pin contact. A spring is configured for engaging the pin contact and includes a plurality of spring fingers positioned for forming a bore with the spring fingers bent radially inwardly and configured for securing a pin in engagement with the body. A sleeve is configured for engaging the body to overlie the spring. Indentations are formed in the body at discrete positions around the body and extend radially inwardly into the pin section. The spring includes tongues extending radially inwardly and configured for extending into the indentations for securing the spring with the body.
Abstract:
An electrical connector contact has a body for receiving a conductor and for receiving a male pin contact. A spring is configured for engaging the pin contact and includes a plurality of spring fingers positioned for forming a bore with the spring fingers bent radially inwardly and configured for securing a pin in engagement with the body. A sleeve is configured for engaging the body to overlie the spring. Indentations are formed in the body at discrete positions around the body and extend radially inwardly into the pin section. The spring includes tongues extending radially inwardly and configured for extending into the indentations for securing the spring with the body.
Abstract:
An electrical connector system includes mating pin and socket connectors each designed for increased contact density to improve performance of high-speed data transfer. The connectors include features for retaining a plurality of pin or socket contacts in a ganged, co-aligned configuration and for shielding groups of contacts from one another to reduce interference and crosstalk. The connectors further include features for providing strain relief to the internal wires and/or cables. The electrical connectors further include an electrically conductive grounding contact to latch various internal components of the electrical connector together for improved mechanical connection and shielding properties.
Abstract:
An electrical connector includes an electrically conductive front and rear shell. The front shell includes a cantilever structure extending from a rear face in an axial direction, the cantilever structure having a catch on a free end thereof. The catch mates with a retention slot located on the rear shell to latch together the front and rear shells of the electrical connector. A contact-receiving cavity formed within the front and rear shells houses an insulating sheath carrying electrical contacts. The electrical connector may further include tangs formed as an integral part of the front shell for bearing against a mating end of a mating connector. The electrical connector may include a retention latch for seating the electrical connector within a separate connector housing.
Abstract:
An electrical connector includes an electrically conductive housing for inhibiting electromagnetic interference. A latch device is mounted to opposite sides of the housing and extends from the housing for positively latching together the electrical connector with a mating connector. The latch device includes a biasing member for driving a latching end of the latch device toward a catch of the mating connector to securely retain the connectors in a mated configuration. The housing further includes a skirt on a mating end, the skirt having a plurality of cantilevered tangs for bearing against a corresponding skirt of the mating connector.
Abstract:
An electrical connector including a shell sized to receive and retain an electrically insulating housing insert, where the housing insert includes a cavity for receiving and retaining a wire-terminating electrical contact therein. The shell and housing insert each include a plurality of mating key features designed to provide a plurality of indexing positions for the housing insert, each index position defining an angular orientation of the housing insert relative to the shell to control a direction of the wiring exiting the electrical connector.
Abstract:
An electrical connector for coupling with a terminal conductive structure includes a terminal assembly that mates with a separate socket assembly in a rotational interface. The terminal assembly terminates in a conductive element, such as a tongue, configured for coupling with a conductive structure, such as a terminal block or power strip, for example. The separate socket assembly has a portion for receiving a conductor of a cable. The terminal assembly includes a pin that fits into a socket portion of the socket assembly for mating the terminal and socket assemblies to form a rotational interface. To secure the assemblies together an outer groove is formed on an outer surface of the terminal assembly and an inner groove is formed in an inner surface of the socket portion. An expandable ring is positioned in the outer groove and is compressed to fit inside of the outer groove for mating the terminal assembly pin and the socket portion. When the assemblies are mated, the grooves align for allowing the ring to decompress into at least part of the inner groove to secure the mated terminal and socket assemblies together in the rotational interface.
Abstract:
An electrical connector assembly for use with conductors includes a pin assembly with a pin and a socket assembly to mate with the pin assembly. The socket assembly includes a socket body configured to receive the pin. A finger collar surrounds the socket body, and a locking collar surrounds and is rotatable on the finger collar. The locking collar moves between an unlocked position and a locked position. The finger collar includes one or more flexible fingers configured to flex to engage the pin assembly when it is mated with the socket assembly. The locking collar includes one or more windows that are in alignment with respective flexible fingers so the flexible fingers lex through the locking collar to engage the pin assembly and flex and grasp the pin assembly. The locking collar is further rotatable to the locked position that moves the windows out of alignment with the respective flexible fingers and prevents further flexing of the flexible fingers away from the pin assembly to lock the socket assembly in engagement with the pin assembly.
Abstract:
An electrical terminal for coupling to a conductive structure includes a body having a wire receiving portion for receiving a conductor. A cup portion is electrically coupled with the wire receiving portion and a boss portion extends from the cup portion. An overmold structure of insulation material is formed on the cup portion and covers the cup portion sides. An aperture is formed in the body and extends through the cup portion and the boss portion for receiving a post of the conductive structure for securing the terminal to the conductive structure. A fastener is configured for engaging a post and securing the boss portion against the conductive structure. The boss portion is configured to surround the aperture for providing an electrically conductive surface free from insulation material for interfacing with the conductive structure. The fastener and post are contained in the cup portion and an insulative cap is configured for engaging the overmold structure and sealing the cup structure around the fastener and post of a conductive structure.