Abstract:
An electrically insulating sheath for retaining electrical contacts in an electrical connector, the insulating sheath including an electrically non-conductive housing with a chamber defined therein. The chamber includes a pair of contact-receiving channels extending in an axial direction, each of the contact-receiving channels including a collar pocket for retaining the electrical contacts when inserted in the sheath. A dividing wall separates the contact-receiving channels from one another to reduce interference and crosstalk among the wires of the electrical contacts. The sheath includes a cover connected to the housing, the cover extending over at least a portion of the chamber.
Abstract:
An electrical contact includes a contact body having a mating portion and a barrel portion configured for receiving an electrical conductor. The barrel portion includes a wall defining a bore having a closed end and open end, and the bore includes a core receiver portion for receiving the core of an electrical conductor and a plug receiver portion adjacent the closed end of the bore. A hole is formed in the barrel portion proximate the closed end of the bore and extending into the plug receiver portion of the bore through the wall. A plug has a body portion configured to be inserted into the bore and to engage the plug receiver portion of the bore. The plug is disposed in the end of the plug receiver portion and is further configured to seal the plug receiving portion of the bore and the hole from the rest of the bore.
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 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 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. One of the connectors may include a plug insert with cantilevered fingers extending therefrom that contact a conductive surface of the mating connector to provide a mechanical connection and a low-impedance pathway between the mating connectors for grounding and shielding. The connectors are designed to be readily assembled and disassembled for repair or rework without the use of special tools.
Abstract:
An electronics system 10 for an aircraft includes a mounting structure 12 and a generally planar plate element 40 mounted to the mounting structure 12 which has opposing face surfaces 41, 43 and includes a central region 50 and side edge regions 52. A serpentine passage 100 is formed in the plate element 40 between the face surfaces and contains alternating liquid slugs and vapor plugs along its length. The plate element 40 is configured for gathering heat proximate the central region 50 and moving the heat to the side edge regions 52 through interaction with the liquid slugs and vapor plugs of the serpentine passage. An electronic system 30, 32 is mounted on a face surface of the plate element proximate the central region 50. A heat dissipating structure, such as a heat sink or an integral portion 120 of the mounting structure 12 is thermally coupled with the plate element and positioned along the side edge regions thereof for dissipating heat of the electronic system 30, 32 moved to the side edge regions 50. A cover structure 14 covers the plate element and electronic system. In one version, the cover 14 has apertures 16, 18 in ends thereof positioned for directing air over the heat sinks.
Abstract:
An electrical connector including an electrically conductive 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 including keying features designed to cooperate with one another to resist independent rotation of the housing insert within the shell. The electrical connector further includes a wire sealing grommet coupled to the housing insert to improve connector performance and minimize arcing issues.
Abstract:
A connector assembly for coupling with one or more electrodes includes one or more cables with wires. A plug is electrically coupled with an end or ends of the cables. An electrode connector structure is electrically coupled with the cables and includes a body that is configured for forming an internal space. A cantilevered first arm has an end that cantilevers toward the internal space. The cantilevered first arm has a rest position and a flexed position. A stationary second arm and arm end extend into the internal space opposite the first arm. At least one of the ends of the cantilevered first arm and stationary second arm include an electrical contact. In the rest position, the end of the cantilevered first arm is positioned opposite the stationary second arm a first distance. In the flexed position, the cantilevered arm, moves away from the stationary second arm to separate the ends to a greater distance to receive the electrode and returns to the rest position to grip the electrode.
Abstract:
The disclosure relates to an electrical connector having an electrical contact assembly housed within a cavity of a connector shell. The contact assembly includes a contact housing with a core extending in an axial direction and a plurality of fins radiating outwardly from the core, each of the fins separating adjacent housing-receiving cavities from one another. In an assembled configuration, a first plurality of electrical contacts is housed within a first housing receiving cavity and a second plurality of electrical contacts is housed within a second housing receiving cavity, where the first and second plurality of electrical contacts are different in type and structure from one another such that the electrical connector accommodates multiple contact layouts to improve overall functionality.
Abstract:
An electrical connection system includes a mounting stud having a base configured for mounting to a conductive surface. One or more one ring-shaped lugs, formed of an electrically conductive material, are configured for being positioned on the mounting stud for surrounding the mounting stud. The ring-shaped lug includes one or a plurality of interior channels extending around the inside diameter thereof. A contact spring is seated within a respective interior channel and is electrically conductive and dimensioned to extend radially inwardly from the channel and contact the mounting stud when the ring-shaped lug is positioned thereon. The contact spring is configured to at least partially collapse in the radial direction and to provide a spring bias against the mounting stud for providing an electrical connection between the ring-shaped lug and mounting stud. A locking cap is positioned on the mounting stud over the at least one ring-shaped lug for locking with the mounting stud and securing the ring-shaped lugs on the mounting stud for a secure electrical connection.