Abstract: A relay assembly includes a coil and a stationary contact having a first contact surface. At least a portion of the first contact surface defines a wiping contact surface. The relay assembly also includes a movable contact having a second contact surface defining a contact area that engages the first contact surface. The movable contact is moved along a driving path toward the stationary contact when current is passed through the coil, and the movable contact is moved along a rebound path different from the driving path after initial impact with the stationary contact. The stationary contact is oriented or shaped with respect to the movable contact such that the movable contact engages, and wipes against, at least a portion of the wiping contact surface when the movable contact is moved along the rebound path.

Abstract: A method for forming a connection assembly includes: forming an electrical connection between first and second electrical cables, the first cable including a first primary conductor and a first neutral conductor, the second cable including a second primary conductor and a second neutral conductor; and providing an integral, unitary cover assembly. The cover assembly includes: an inner elastomeric sleeve defining a cable passage to receive the electrical connection and the first and second primary conductors; and an outer elastomeric sleeve surrounding the inner sleeve.

Abstract: A bobbin assembly is disclosed that includes a first bobbin and a second bobbin. The second bobbin is configured substantially similar to the first bobbin. The first and second bobbins include a first flange and a second flange disposed at opposite ends of a central core. The first flanges include terminal receiving cavities and wire posts for terminate a wire wound around the central core. The bobbin assembly may be formed by mating either the first flanges or the second flanges together.

Abstract: Apparatus for accessing a length of a selected one or more of a plurality of optical fibers within an outer protective jacket of a cable including the plurality of optical fibers and at least one strength member extending longitudinally therein include a cable positioning fixture. The cable positioning fixture is configured to receive a portion of the cable therein and to establish a desired orientation of the portion of the cable in the fixture relative to the at least one strength member therein while a cutting member removes a scalloped segment from the outer protective jacket.

Abstract: An electrical connector for electrically coupling an electronic module and an electrical component. The connector includes a substrate that has first and second surfaces separated by a thickness. The substrate includes interconnects that extend through the substrate and are arranged in an array. The interconnects are configured to engage the module along the first surface and engage the electrical component along the second surface. The connector also includes alignment members that extend through openings in the substrate. The alignment members include heads that project beyond and away from the first surface. The heads are located about the substrate relative to each other to collectively form a module reception area therebetween to hold the module in a predetermined position and orientation with respect to the first surface and with respect to the interconnects.

Abstract: An electrical connector assembly is disclosed having a main housing portion, camming slide mounting in camming slide receiving guides of the main housing portion, a wire guide and a lever. The lever is operably coupled to the camming slides to translate the camming slides upon rotation of the lever. The lever is mounted to the wire guide, and the combination of the wire guide and the lever are reversible to reverse the orientation of the wires in the wire dress.

Abstract: A panel assembly includes a panel having an opening therethrough that selectively receives either a first cassette or a second cassette, where the first and second cassettes have front and rear mating interfaces that mate with cable connectors. The first cassette has at least one of the front and rear mating interfaces being different than the front and rear mating interfaces of the second cassette, respectively. A connectivity sensor is mounted to either the first cassette or the second cassette depending on which of the first cassette and the second cassette is received in the opening of the panel. The connectivity sensor senses a connectivity status of the front mating interface of the corresponding first cassette or second cassette and generates a connectivity status signals relating to the connectivity status. An input/output connector is held by the panel.

Abstract: An end cap assembly for a light tube that has a circuit board with lighting devices mounted thereto includes an end cap body coupled to the light tube. The end cap body has an external mating face configured to mate with a socket connector of a fixture. The end cap body includes contact bores therethrough extending along parallel bore axes between inner ends and outer ends. Contacts are received in the contact bores along the bore axes. The contacts have socket mating ends extending from the contact bores beyond the outer ends for mating with the socket connector. The contacts have wire termination ends opposite to the socket mating ends. Wires are terminated to the wire termination ends of the contacts. The wires are configured to be electrically connected to the circuit board. Optionally, the contacts may be crimped to the wires. Alternatively, the contacts may be poke-in wire contacts that receive the wires.

Abstract: A connector assembly includes a housing and a contact. The housing extends from a front end to an opposite back end. The housing includes an interior chamber inwardly extending from the front end that is configured to receive a mating connector through the front end of the housing. The contact is joined with the housing and extends between a mating end and a mounting surface. The mating end is configured to engage a mating contact of the mating connector. The mounting surface is configured to be mounted to a substrate to electrically couple the mating connector with the substrate. The housing extends through an opening in the substrate such that the housing protrudes from opposite sides of the substrate.

Abstract: An electromagnetic relay has a relay coil, an armature, a pusher and a contact system. The armature is actuated by the relay coil, and linked to the pusher to drive the pusher to operate the contact system. A set of stationary contact springs and a set of moveable contact springs have a gap separating them. The moveable contact springs connect to the pusher and to a pivot point. The stationary springs have a notch therein adjacent to the base structure portion. The pusher movement causes the stationary contact springs and the moveable contact springs to engage or disengage, and to automatically adjust the overtravel angle of the stationary contact springs relative to the moveable contact springs by bending the stationary contact spring at the notch of the stationary contact spring.

Abstract: A low profile photovoltaic (PV) connector for placement in space restricted areas. The connector includes a plug and receptacle for interconnecting PV solar arrays. The receptacle is mechanically secured to a solar array. The mechanical connection between the receptacle and the solar array may be a staking process (e.g., ultrasonic, heat). The plug and receptacle may be locking, where only an extraction tool or other similar device may remove the plug from the receptacle. The plug and receptacle may also be non-locking.

Abstract: An electromechanical relay includes an armature and an inner core at least partially surrounding at least a portion of the armature. The armature is slidably movable relative to the inner core. A coil at least partially surrounding at least a portion of the inner core. The relay also includes a stationary contact held in a ceramic header and a movable contact connected to the armature via a shaft. The movable contact is movable between an open position wherein the movable contact does not engage the stationary contact and a closed position wherein the movable contact engages the stationary contact. The relay also includes a housing having an open end and a chamber. The chamber contains the armature, the inner core, the coil, the movable contact, and at least a portion of the stationary contact. The housing forms a portion of a magnetic circuit of the relay. The ceramic header is circumferentially welded to the housing adjacent the open end such that the chamber of the housing is hermetically sealed.

Abstract: A connector shell includes a frame, a dividing wall and a plurality of connector inserts. The frame surrounds a periphery of the shell. The dividing wall is homogeneously formed with the frame and separates a plurality of recesses. The connector inserts are homogeneously formed with the frame and the dividing wall. The inserts are disposed with one or more of the recesses. Each insert includes a body and a plurality of cavities. Each body is configured to hold a plurality of contacts that protrude from each of a mating and a loading side. The contacts are configured to be mounted to a circuit board in a location proximate to the loading side and to mate with a plurality of other electrical connectors in a location proximate to the mating side.

Abstract: A system for manufacturing electrical components includes a reflow chamber having an inlet port and an outlet port. The inlet port receives a web of interconnected electrical components having a conductive coating into the reflow chamber. The outlet port discharges the web from the reflow chamber. The reflow chamber directs the web of interconnected electrical components along a predetermined pathway through the reflow chamber. The reflow chamber retains a heated and saturated vapor to heat the conductive coating as the web passes along the pathway through the chamber to reflow the conductive coating about the electrical components.

Abstract: A pressing tool includes a tool body having a working end, an actuator held by the tool body and operated during a pressing operation, and a disabling device operable to stop the hydraulic actuator during the pressing operation, wherein the actuator is disabled and locked in a disabled position after the disabling device is operated. Optionally, the disabling device may be configured to be reset to a normal operation position by a key.

Abstract: A composite assembly for an electrical connector includes a conductive substrate and an electrodeposited layer. The conductive substrate is configured to form a conductive path of the electrical connector. The electrodeposited layer is disposed on the conductive substrate and includes a dielectric material. A method of manufacturing a composite assembly for an electrical connector includes providing a fluid bath that includes a dielectric material and immersing at least part of a conductive substrate into the fluid bath. The method also includes applying a voltage potential between the fluid bath and the conductive substrate and electrodepositing a dielectric layer that includes the dielectric material on the conductive substrate.

Abstract: An electrical connector assembly includes a housing, a cable and a cable retention element. The housing holds contacts that are configured to be electrically joined with a peripheral device. The housing includes a cable port that is disposed at an outer surface of the housing. The cable extends from the cable port of the housing along a cable axis. The cable is electrically coupled with the contacts in the housing. The cable retention element is attached to the cable and is at least partially disposed within the housing. The cable retention element includes a body that is joined with the cable and a wing protruding from the body in a direction oriented at an angle with respect to the cable axis. The wing engages the housing to prevent the cable from being removed from the housing.

Abstract: A high speed electrical connector assembly is disclosed providing a first subassembly having connector assemblies attached to a daughtercard, and a second subassembly having connector assemblies attached to a backplane. A keying guide module is mounted to the daughtercard and a keying guide pin is mounted to the backplane. The alignment of the keying guide module and keying guide pin aligns the connector assemblies on the daughtercard and backplane.

Abstract: A connector insert includes a unitary body, cavities extending through the body, and contacts. The body extends between mating and loading sides. The loading side is configured to engage a circuit board. The mating side is configured to mate with a peripheral connector to electrically couple the circuit board with the peripheral connector. The cavities extend through the body from the mating side to the loading side. The contacts are held in the cavities of the housing and protrude from each of the mating and loading sides to engage the circuit board and peripheral connector and to provide an electronic signal path between the circuit board and the peripheral connector. The contacts are loaded into the cavities through the loading side and retained in the body by an interference fit between the contacts and the body. The interference fit prevents the contacts from being removed from the body through the mating side.

Abstract: An electrical connector for electrically coupling an electronic module and an electrical component. The connector includes a connector body that has first and second mating surfaces. The connector body includes interconnects that extend through the connector body between the first and second mating surfaces for electrically coupling the module and the component. The connector body has a hole extending therethrough along a central axis. The hole is configured to receive a guide pin from one of the module and the component. The connector also includes surface mount projections that are coupled to the connector body and extend toward the central axis of the hole. The projections engage and flex against the guide pin when the guide pin is inserted into the hole. The projections form an interference fit with the guide pin to hold the connector body in a mounted position.