Abstract: An electrical connector includes a differential signal pair. A portion of each terminal is disposed in an insulative housing and an electrically conductive shield extends around at least a portion of the terminals and a least a portion of the housing. The housing may have a lower surface and a projection extending downward from the lower surface between a portion of a vertical section of each of the terminals. The terminals may have an angled section including a vertical portion having a first width, an angled portion narrower than the vertical portion, and a horizontal portion narrower than the angled portion. The housing may have a housing mating component spaced from a housing body component and aligned with but spaced from the terminals. The terminals may have a planar termination section with a first portion wider than a second portion.

Abstract: An electrical connector includes a differential signal pair. A portion of each terminal is disposed in an insulative housing and an electrically conductive shield extends around at least a portion of the terminals and a least a portion of the housing. The housing may have a lower surface and a projection extending downward from the lower surface between a portion of a vertical section of each of the terminals. The terminals may have an angled section including a vertical portion having a first width, an angled portion narrower than the vertical portion, and a horizontal portion narrower than the angled portion. The housing may have a housing mating component spaced from a housing body component and aligned with but spaced from the terminals. The terminals may have a planar termination section with a first portion wider than a second portion.

Abstract: A turbocharger for a power system is disclosed. The turbocharger has a turbine wheel and a housing configured to at least partially enclose the turbine wheel. The housing has a first turbine volute configured to fluidly communicate exhaust gases with the turbine wheel, a second turbine volute configured to fluidly communicate exhaust gases with the turbine wheel, a wall member axially separating the first and second turbine volutes. The housing also has a first plurality of annularly disposed vane members associated with at least one of the first and second turbine volutes.

Abstract: A compound turbocharger is provided, including at least one housing. A first turbocharger having an outer shaft is disposed within the housing, and a second turbocharger is provided having an inner shaft co-axial with and extending within the outer shaft. At least one displacement limiter is disposed at a selected position along the length of the outer shaft. A method of reducing vibrational amplitude in an inner shaft of a coaxial shaft assembly is further provided, including the step of operably positioning at least one displacement limiter at a selected position along a length of the outer shaft.

Abstract: An electrical contact comprises a compliant section (1) with a plurality of spring members (2), a U-shaped retention section (5) with a pair of arms (6) having sharp barbs (7), and a tubular section (8) with a pair of flexible beams (9) and a C-shaped rigid beam (10) with a stop tab (11).

Abstract: An electrical connector is adapted for mounting on a printed circuit board. The connector includes a dielectric housing having a mating face and a board-mounting face. At least one mounting post projects from the board-mounting face for insertion into a mounting hole in the printed circuit board. The mounting post is bifurcated lengthwise thereof and includes a relatively rigid leg of a substantially C-shaped cross section defining a slot extending longitudinally thereof. A relatively flexible leg includes a latch for latching engagement with the printed circuit board at the mounting hole. The flexible leg is sized for flexing movement substantially into the slot in the C-shaped rigid leg. Therefore, the C-shaped rigid leg provides an overstress protection for the flexible leg.

Abstract: An electrical connector includes a dielectric housing having a conductor-receiving groove defined at least in part by a pair of side walls between which an elongated insulated conductor is receivable essentially normally of its length. An electrical contact has an insulation displacement termination section disposed in the groove. A pair of inwardly-directed wings are provided in the groove and spaced from and facing one another to provide a slot therebetween. The conductor is movable through the slot past free ends of the wings into insulation-displacement termination with the termination section of the contact. A pair of retention ribs face inwardly of the side walls of the groove essentially below the wings for embracing and thereby retaining the conductor terminated by the contact.

Abstract: A panel mount system includes an electrical connector for mounting in an aperture in a panel. The connector has a mounting flange for interfacing with the panel, and a pair of cantilevered latch structures. Each latch structure includes a base arm projecting from the mounting flange and one locking arm deflectably cantilevered at one side of the base arm from an end thereof remote from the mounting flange. The locking arm extends angularly from the end of the base arm and from the one side thereof back towards the mounting flange. The other side of the base arm opposite the locking arm is substantially rigid. The maximum cross-sectional dimensions of one of the latch structures and its adjacent portion of the mounting aperture is different from the maximum cross-sectional dimensions of the other latch structure and its adjacent portion of the mounting aperture to provide polarization for the connector relative to the panel.

Abstract: A panel mount system includes a pair of hermaphroditic electrical connectors mounted in apertures in a respective pair of panels. Each connector includes a mounting flange for interfacing with the panel and a pair of cantilevered latch structures. Each latch structure includes a base arm projecting from the mounting flange and a pair of locking arms deflectably cantilevered from an end of the base arm. The maximum cross-sectional dimension defined by each pair of locking arms is greater than respective adjacent portions of the respective mounting aperture whereby the locking arms of each latch structure are deflectable to pass through the respective mounting aperture and then to an undeflected condition to mount the connector to the panel. The maximum cross-sectional dimension defined by the base arm is less than the respective adjacent portion of the mounting aperture to permit floating of the connector relative to the panel.

Abstract: A system is provided for mounting an electrical connector to one side of a panel or other planar substrate. The connector includes a housing having a mounting face with a mounting boss projecting therefrom. The boss includes an enlarged head portion. The panel includes an aperture shaped for receiving the enlarged head portion therethrough such that the boss is rotatable in the aperture from a first insertion position and a second mounted position of the housing whereat the enlarged head portion overlaps the opposite side of the panel. Resilient detent latches on the housing snap into detent recesses in the panel automatically when the housing is in its second mounted position to lock the housing thereat.

Abstract: A programmable input-output electrical connector is provided for electrically coupling a plurality of conductors with an electronic component having a plurality of circuits. The connector includes a dielectric housing. A programming multi-contact bus is mounted in the housing. The bus includes a plurality of spring contacts normally biased into engagement with respective circuits on the electronic component. The spring contacts are individually selectively movable to inoperative positions out of engagement with the circuits. Latch devices are operatively associated with the spring contacts for positively holding each spring contact individually in its inoperative position.

Abstract: An insulation displacement termination system is provided for an input-output electrical connector which includes a dielectric housing having a top face and a bottom face with a terminal-receiving passage therebetween. At least one terminal includes an insulation displacement section generally at the bottom face of the housing for termination to an insulated electrical conductor through a lower mouth of the passage in the bottom face of the housing. The terminal includes a contact section projecting through an open upper end of the passage generally in the top face of the housing for engaging a complementary mating electrical component. The terminal is configured for insertion into the terminal-receiving passage through the lower mouth thereof.

Abstract: An electrical connector system is provided for electrically coupling a plurality of conductors with a printed circuit board. The system includes a main housing for mounting on one side of the printed circuit board, the board having an IC chip on the opposite side thereof. Main terminals are mounted on the main housing for coupling the conductors to circuits of the printed circuit board. A unitary secondary housing is adapted for mounting on the opposite side of the printed circuit board and includes an integral shield portion for covering the IC chip and providing electrostatic discharge protection therefor. Apertures are provided in the shield portion to allow for cooling of the IC chip. The unitary secondary housing includes at least one integral header portion defining a receptacle for receiving a complementary electrical connector.