Abstract: A connector includes a receptacle attached to a rear substrate accommodated in a front case, and a plug attached to one end of a coaxial cable, integrated with a rear case assembled to the front case, and fitted to the receptacle. A separate cable different from the coaxial cable integrated with the rear case together with the plug is integrated with the rear case.

Abstract: A terminal assembly includes a terminal block of a dielectric material defining a plurality of bores therethrough. A respective terminal contact of an electrically conductive material is seated in each of the respective bores. The terminal contact defines a longitudinal axis therethrough with a terminal bore defined through the terminal contact along the longitudinal axis. A divider wall separates the terminal bore into a solder cup for a lead wire on an interior side of the terminal bore, and a lug receptacle on an exterior side of the terminal bore.

Abstract: A conductor terminal with an insulating material housing and a spring-force terminal connection. The spring-force terminal connection has a contact body which is shaped out of a sheet element and has a base portion, lateral wall portions that protrude from the base portion and are mutually spaced, and solder connection contact tongues. The base portion together with the lateral wall portions forms a conductor receiving channel for receiving an electric conductor, and leaf spring tongues protrude from the lateral wall portions so as to face one another, each leaf spring tongue has a clamping edge for clamping an electric conductor received in the conductor receiving channel. The insulating material housing has a conductor insertion opening which leads to the conductor receiving channel on the front face.

Abstract: Systems and method are described for a terminal block that can include an insulating block that is composed of an electrically insulating material. The insulating structure can have a first via extending between a first and second opening in the insulating block. A second via can extend between a third and fourth opening in the insulating block. A distance between the first and second openings may be less than a distance between the third and fourth openings. A first electrical conducting element can extend between the first and second openings. A second electrical conducting element can extend between the third and fourth openings. The first and second electrical conducting elements can be separated from one another by a portion of the insulating block.

Abstract: In this vehicle electronic control device, a control board having an electronic component mounted thereon is housed inside a case and a connector portion for connecting the control board to the outside is formed integrally with the case. The connector portion is formed by a housing portion covering the control board, and a terminal portion integrally embedded in the housing portion. The terminal portion has: a terminal for external connection, protruding from the housing portion; and an intermediate path portion extending from the terminal and connected to the control board. An exposure portion which allows the intermediate path portion to be exposed over the entire periphery thereof is formed in a part of the housing portion. An interface sealing member for sealing the interface between the housing portion and the intermediate path portion is provided in the exposure portion.

Abstract: In at least one illustrative embodiment, a power tool may comprise an electric motor comprising a rotor configured to rotate about an axis, a stator assembly including at least three windings arranged around the rotor, and at least three lugs affixed to the stator assembly, where each of the lugs is electrically coupled to one or more of the windings. The lugs may all be arranged to one side of a plane that passes through the axis. The power tool may further comprise at least three electrical wires, where each of the electrical wires is removably coupled to one of the lugs, and a control circuit configured to supply electrical power to the windings, via the electrical wires and the lugs, to drive rotation of the rotor about the axis.

Abstract: An electrical contact includes a base that includes first and second side edges, and a forward edge that extends between the first and second side edges. At least one contact arm extends from the forward edge of the base for making electrical contact with a contact pad. Each of the first and second side edges defines one or more protrusions configured to engage an interior portion of a connector housing for securing the electrical contact within the connector housing. The one or more protrusions on the first side edge are asymmetrically arranged with respect to the one or more protrusions on the second side edge such that respective centers of each of the one or more protrusions on the first side edge are misaligned with respective centers of each of the one or more protrusions on the second side edge.

Abstract: An electronic apparatus partially overmolded with a overmold sealing material that seals the circuit board, protects the electrical components on the circuit board and provides seals between the circuit board and mating devices is disclosed. The electronic apparatus may be an engine controller. The electrical components may be an electrical edge connector, a sensor, and a heat sink. The sensor may be a pressure sensor. The controller may be connected to a throttle body such that the overmold sealing material provides a first seal between the controller and the throttle body allowing the pressure sensor to be in fluid communication with the interior of the throttle body. A wire harness may be connected to the controller such that the overmold sealing material provides a second seal between the wire harness and the controller protecting the electrical connection. The overmold sealing material may also be translucent.

Abstract: The invention provides a terminal including a base, a first arm, a second arm, a first contact portion and a second contact portion. The base is of a plate-like shape. The first arm is of a plate-like shape and extends from the base in a first direction. The second arm is of a plate-like shape, extends from the base in the first direction, is spaced apart from the first arm in a second direction crossing the first direction, and has a larger dimension in the first direction than that of the first arm. The first contact portion is of a plate-like shape and extends from the first arm to one side of the second direction. The second contact portion is of a plate-like shape and extends from the second arm to the one side of the second direction so as to be located on one side of the first direction of the first contact portion.

Abstract: A power breaker strip comprising a strip support and a plurality of interphase spacer elements, and a plurality of interline spacer elements, assembled with the plurality of interphase spacer elements such that each interline spacer element extends at least partly between two consecutive interphase spacer elements. The interphase spacer elements and the interline spacer elements together delimit a plurality of per pitch zones of the strip in which connection terminals of several lines of electrical cables can be inserted.

Abstract: An exemplary connector insert assembly, and methods of manufacture and use thereof. In one embodiment, the connector insert assembly comprises an insert body assembly consisting of two insert body elements made from a high-temperature polymer. The insert body assembly includes an electronic component receiving cavity that is configured to receive any number of electronic components, including without limitation, chip chokes and wire wound electronic components. The insert body assembly includes a wire termination feature that includes termination slots that position the wire ends of the wire wound electronic components adjacent to a substrate to which the wire ends are ultimately to be secured. The wire ends are then secured to the substrate using, for example, a mass termination technique. The aforementioned connector insert assembly can then be inserted into a single or multi-port connector assembly. Methods of manufacturing the aforementioned single or multi-port connector assemblies are also disclosed.

Abstract: A terminal block for an apparatus includes at least one terminal conductor having a first end that extends to a second end. The first end includes a first connection portion and the second end includes a second connection portion. A non-electrically conductive member covers the at least one terminal conductor. The non-electrically conductive member includes a body having a first end section arranged at the first end extending through an intermediate section to a second end section arranged at the second end. The first end section includes a first opening exposing the first connection portion, and the second end portion includes a second opening exposing the second connection portion. The body further includes a conductor routing system having at least one conductor routing member configured and disposed to restrain and guide a conductor member across the at least one terminal conductor.

Abstract: A circuit breaker can minimize a change in a structure of a case when a material forming a stud is changed. A stud includes a base portion provided in the case and a protruding portion protruding from the case. A cross-sectional area of the protruding portion is more than that of the base portion; thereby a thermal conductivity of the protruding portion increases and the thermal conductivity from the protruding portion to an external conductor connected to the stud increases. In addition, since a surface area of the protruding portion increases, an amount of heat dissipated from the protruding portion increases. In the invention, since dimensions of the base portion inserted into a stud insertion hole of the case are not changed, it is not necessary to change the dimensions of the insertion hole of the case.

Abstract: An electrical power connector includes a plurality of conducting terminals and an electrically insulative terminal block directly molded on the conducting terminals by insert molding. Each conducting terminal has a mating contact portion suspending in a front mating receiving hole of the electrically insulative terminal block, a plate-like mounting portion bent into shape and partially embedded in the electrically insulative terminal block and partially extending out of the bottom side of the electrically insulative terminal block, one or multiple through holes cut through the plate-like mounting portion and embedded in the electrically insulative terminal block, and a bent portion located at the plate-like mounting portion and transversely extending across each through hole and embedded in the electrically insulative terminal block.

Abstract: A terminal block (10) fastens conductors by placing the conductors one above another and fastening bolts and includes a plurality of nuts (30) on which the conductors are to be placed and partition walls (50) partitioning between adjacent nuts (30). Each partition wall (50) includes an insulation wall (24) provided in an insulation plate (20) arranged below the nuts (30) and a molded resin portion (60) covering the upper surface of the insulation wall (24) and the side surface of the insulation wall (24). Exposed portions (27A), which are exposed upper end parts of a projecting portion (27) provided on the insulation wall (24), are provided on the upper end surface of the molded resin portion (60).

Abstract: A stud bolt according to the embodiments includes a first male screw portion and a second male screw portion on both sides, respectively. The second male screw portion has an outer diameter different from that of the first male screw portion, and a first recessed portion is formed in an end portion of the second male screw portion.

Abstract: A terminal block has nuts (10), each with a step (12) slightly recessed and formed at an outer peripheral part of an upper fastening surface (10A) on which conductors are to be placed. A heat sink (40) is arranged below the nuts (10) and an insulating plate (20) is sandwiched between the nuts (10) and the heat sink (40). Resin (60) is molded around these three kinds of members (10, 20, 40). The steps (12) are pressed by resin cut-off parts (73) provided in a first mold (71) for the resin (60). Restricted surfaces (12A) at outer peripheral sides of press surfaces (12B) to be pressed by the resin cut-off parts (73) on the steps (12) are covered by the molded resin (60).

Abstract: A terminal assembly includes a terminal board with an interrupted aperture to receive a passthrough.

Abstract: A terminal block (10) fastens conductors by placing the conductors one above another and fastening bolts and includes a plurality of nuts (30) on which the conductors are to be placed and partition walls (50) partitioning between adjacent nuts (30). Each partition wall (50) includes an insulation wall (24) provided in an insulation plate (20) arranged below the nuts (30) and a molded resin portion (60) covering the upper surface of the insulation wall (24) and the side surface of the insulation wall (24). Exposed portions (27A), which are exposed upper end parts of a projecting portion (27) provided on the insulation wall (24), are provided on the upper end surface of the molded resin portion (60).

Abstract: A terminal block has nuts (10), each with a step (12) slightly recessed and formed at an outer peripheral part of an upper fastening surface (10A) on which conductors are to be placed. A heat sink (40) is arranged below the nuts (10) and an insulating plate (20) is sandwiched between the nuts (10) and the heat sink (40). Resin (60) is molded around these three kinds of members (10, 20, 40). The steps (12) are pressed by resin cut-off parts (73) provided in a first mold (71) for the resin (60). Restricted surfaces (12A) at outer peripheral sides of press surfaces (12B) to be pressed by the resin cut-off parts (73) on the steps (12) are covered by the molded resin (60).

Abstract: A ground joint connector (JC) has a housing (20) with cavities (21) for receiving female terminals (11). The ground joint connector (JC) also has a joint terminal (50) including a male terminal portion (51) with male terminals (55) to be accommodated in the respective cavities (21). A bracket (52) is connected with the male terminal portion (51) and includes a mounting portion (65) to be mounted on a grounding portion. The bracket (52) extends in an extending direction of the cavities (21) from the rear edge of the male terminal portion (51) and then is bent twice to define a crank shape. Reinforcing flanges (73) and ribs (75) are formed on a flat portion at a base end side of the bracket (52). The housing (20) includes receiving portions (46, 47) for tightly holding back ends of the flanges (73) and the ribs (75).

Abstract: The present disclosure is directed to a terminal assembly member for electrically connecting output leads to external systems and equipment, including a one piece insulating body formed from high-pressure molten plastic/nylon, adapted for mounting to an external portion of a generator housing; one or more conductive inserts over-molded within the one piece insulated body, the conductive inserts having at least one threaded bore for receiving a bolt; and one or more bronze alloy lug structures over-molded within the one piece insulated body, the one or more lug structures having a generally L-shaped geometry and a plurality of bores adapted for attaching terminal ring carriers.

Abstract: The present disclosure is directed to a terminal assembly member for electrically connecting output leads to external systems and equipment, including a one piece insulating body formed from high-pressure molten plastic/nylon, adapted for mounting to an external portion of a generator housing; one or more conductive inserts over-molded within the one piece insulated body, the conductive inserts having at least one threaded bore for receiving a bolt; and one or more bronze alloy lug structures over-molded within the one piece insulated body, the one or more lug structures having a generally L-shaped geometry and a plurality of bores adapted for attaching terminal ring carriers.

Abstract: A connection member of simple structure having a high reliability and capable of performing electric cable branching is provided. Connection portions of a plurality of electric cable terminals having an electric cable are respectively inserted into an electric cable terminal insertion hole of a holding body. Cylindrical contact points of the connection portions are aligned in a pin terminal insertion hole and a pin terminal is inserted into the pin terminal insertion hole. The pin terminal is successively inserted into the cylindrical contact points of the electric cable terminals arranged in parallel in the pin terminal insertion hole so that the pin terminal is electrically connected to the plurality of connection portions and the connection portions are short-circuited with one another.

Abstract: A connecter comprises a housing having a first projection formed on an upper half of a first lateral surface over the entire width thereof between the front surface and the rear surface, and a second projection formed on a lower half of a second lateral surface opposed to the first lateral surface; a single detection terminal mounted inside the first projection, capable of connection to an electrode of a single cell contained in a fuel cell; and a detection terminal mounted in the lower half of the housing, capable of connection to the electrode of the single cell contained in the fuel cell. The detection terminals are all arranged at equal intervals.

Abstract: Disclosed herein are a method and an apparatus for providing a high efficiency seal in an electrical connector. The seal provides an impediment to the passage of fluid at one end of the electrical connector to the environment at the other end of the electrical connector. The electrical connector may be incorporated into an over-mold that contains other components. The electrical connector achieves the highly efficient seal through a combination of a dual torturous path design, incorporation of melt ribs, and may further involve the technique of impregnation.

Abstract: A wire harness assembly and flange combination of a mechanical returnless fuel system includes a wire harness assembly (10) having at least two terminals (14?). Each terminal is joined with at least one wire (12?) via an electrical connection (15?). Diode structure (16) is electrically connected between the at least two terminals. A body (18) of plastic material encapsulates at least the electrical connection. A flange (20) is molded from plastic material and defines an inside region (26) and an outside region (22). The terminals are accessible from the outside region of the flange, with ends of the wires being accessible from the inside region of the flange. The plastic material of the flange encapsulates at least a portion of body, the diode structure, and at least a portion of the terminals.

Abstract: An electrical connector (1) includes a contact case (2). A plurality of contacts (3) are retained in the contact case (2). The contacts (3) comprise a group of first contacts (311) and a group of second contacts (321). Each first and second contact (311, 321) has a body portion (313), a contact portion (314) and a soldering portion (315) extending from two ends of the body portion (313). The body portion (313) has a first bending portion (3131) joined with the contact portion (314), and a second bending portion (3132) joined with the soldering portion (315). A metal shield (4) encloses the contact case (2). Wherein the first bending portions (3131) of the first contacts (311) and the second contacts (321) are located at inside of the contact case (2). The distance between the first bending portion (3131) and the second bending portion (3132) of the second contact (321) is larger than that of the first contact (311).

Abstract: An electrical connector (100) according to the present invention includes an insulative housing (1) and a pair of conductive terminals (2). The housing includes a wire connecting portion (11) for connecting a wire and a mating port (10) with a receiving space (101) at the center thereof adapted for receiving a complementary connector, and the wire connecting portion defines a plurality of surfaces. The pair of conductive terminals include mating portions (22) received in the receiving space and soldering portions (21) surface mounted on different surfaces of the wire connecting portion of the housing so that the soldering portion of the terminals is separated by the wire connecting portion of the housing.

Abstract: The invention relates to a contact insertion guide structure having a contact and an insulative housing. The contact having a mating portion for contacting a mating contact at one end, a terminal portion for connecting to a circuit board on an opposite end, and a press-fit section between the mating portion and the terminal portion. The housing having a contact receiving passageway through which the contact is inserted, and a securing section which is formed in an inner wall of the contact receiving passageway and into which the press-fit section is received. The contact further includes a first narrow section formed closer to the terminal portion than the press-fit section and thinner than the press-fit section, and a second narrow section formed closer to the terminal portion than the first narrow section and further thinner than the first narrow section.

Abstract: An electrical interconnection includes a plug connector (30) and a receptacle connector (40) mated with each other, with uniformly-spaced mounting portions (3053, 4053) for engaging contacts of two parallel spaced circuit boards. The uniformly-spaced mounting portions are achieved by providing neck portions (3057, 4057), attached to the mounting portions, angled with different degrees with respect to respective planes of base portions (3051, 4051) of terminals (305, 405) in the plug connector and the receptacle connector.

Abstract: An eSATA (External Serial Advanced Technology Attachment) connector includes an electrically insulative housing that defines therein a receiving chamber for the insertion of an external interface connector, and a terminal block that has a cantilever type tongue plate suspended in the receiving chamber and a set of eSATA terminals arranged on a first surface of the cantilever type tongue plate for transmission of data signals with the external interface connector that is inserted into the receiving chamber and a set of power terminals arranged on the opposite surface of the cantilever type tongue plate for providing power supply to the external interface connector that is inserted into the receiving chamber.

Abstract: An electrical connector (100) according to the present invention includes an insulative housing (1) and a pair of conductive terminals (2). The housing includes a wire connecting portion (11) for connecting a wire and a mating port (10) with a receiving space (101) at the center thereof adapted for receiving a complementary connector, and the wire connecting portion defines a plurality of surfaces. The pair of conductive terminals include mating portions (22) received in the receiving space and soldering portions (21) surface mounted on different surfaces of the wire connecting portion of the housing so that the soldering portion of the terminals is separated by the wire connecting portion of the housing.

Abstract: A connector circuit assembly for use in an implantable medical device, and a method of making the assembly that includes a core portion formed of a thermoplastic material using either an injection molding process or a machining process. This core portion is adapted to be fitted with at least one electrically-conductive circuit component such as a connector member, a set-screw block, or a conductive jumper member. In one embodiment of the invention, the core portion includes multiple receptacles or other spaces that are adapted to be loaded with the various circuit components. The core assembly is positioned into a second-shot mold assembly, and a second thermoplastic material is injected into the mold so that the second thermoplastic material extends over and adheres to the core portion and the circuit component.

Abstract: A method of manufacturing a terminal block for a telecommunication cable comprising the steps of providing a mold having a first half and a second half, each forming a respective body cavity configured to form a terminal block and configured to receive a substrate comprising a plurality of openings adapted to receive an insulated electrical contact. A plurality of projections extend from the first half into the cavity, wherein the plurality of projections are adapted to remove a portion of insulation from the electrical contact positioned within each of the openings. The substrate is positioned in the mold and the insulated electrical contact is inserted into each of the openings. The mold is closed such that the plurality of projections remove a portion of the insulation from the insulated electrical contact upon closing of the mold. A dielectric material is then injected into the mold containing the substrate and insulated electrical contact to form a terminal block.

Abstract: An electrical interconnection includes a plug connector (30) and a receptacle connector (40) mated with each other, with uniformly-spaced mounting portions (3053, 4053) for engaging contacts of two parallel spaced circuit boards. The uniformly-spaced mounting portions are achieved by providing neck portions (3057, 4057), attached to the mounting portions, angled with different degrees with respect to respective planes of base portions (3051, 4051) of terminals (305, 405) in the plug connector and the receptacle connector.

Abstract: A connector case has a connector part, a terminal, and a resin case. The connector part of a concave shape accommodates external connection terminals. One end of the terminal is the external connection terminal. The terminal is inserted in the resin case by insert molding. The connector part, the terminal, and the resin case are integrated in one body. A part of the terminal other than the external connection terminal is exposed to the outside of the resin case as a resin case terminal. The resin case has a resin injection part of a concave shape accommodating a middle part of the terminal between the external connection terminal and the resin case terminal, namely, the middle part is exposed in the resin injection part and is filled with an encapsulating resin completely.

Abstract: The present invention provides a simple and robust design implementing an easily accessible external terminal connection point for supplying drive current to an AC motor. An embodiment of the invention is directed to an insertion plug and a conductor formed within the insertion plug. Specifically, the conductor acts as a current bus through an insertion aperture defined in a motor housing. The interior end of the conductor acts as an interior connection terminal for an AC phase coil, whereas the exterior end of the conductor is configured to accept an external motor drive source power cable. Advantageously, the modularity of the insertion plug design and a modified insertion housing aperture stamping program provide significant flexibility with regard to placement of the connection terminal. This aspect of the invention allows the connection terminals, as well as a corresponding motor housing to be customized for pre-existing mechanical designs and assemblies.

Abstract: A method provides wiring associated with a flange of a fuel delivery module for use in a fuel tank of a vehicle. The method includes molding a plastic flange 12 of a fuel delivery module, with the flange defining an inside region 11 and an outside region 7. At least one terminal 20? is provided that is accessible from the outside region of the flange. An electrical connection 28 is established between the at least one terminal and a wire 16?. In one embodiment, plastic material 25 is molded directly over a) the connection 28, b) at least a portion 32 of the wire 16? and c) at least a portion 34 of the terminal 20? to seal the connection, the portion of the wire, and the portion of the terminal between the inside region and outside region of the flange. In another embodiment a pre-formed plastic body encapsulates the connection 28 and the body is placed in a flange mold and plastic material is over molded to encapsulate the portion of the terminal while molding the flange.

Abstract: A lid of a fuel tank that includes a lid body constructed of a molded plastic and shaped and sized to be put in an opening formed in a wall of the fuel tank. The lid body has a first portion that is exposed to the interior of the fuel tank when the lid is put in the opening of the wall and a second portion that is projected laterally from a major portion of the lid body over a peripheral area of the opening of the wall when the lid is put in the opening of the wall. The lid further includes a wiring embedded and extending in the lid body. The wiring has a first end exposed to the outside of the lid body from the first portion of the lid body and a second end exposed to the outside of the lid body from the second portion of the lid body.

Abstract: A method provides wiring associated with a flange of a fuel delivery module for use in a fuel tank of a vehicle. The method includes molding a plastic flange 12 of a fuel delivery module, with the flange defining an inside region 11 and an outside region 7. At least one terminal 20? is provided that is accessible from the outside region of the flange. An electrical connection 28 is established between the at least one terminal and a wire 16?. In one embodiment, plastic material 25 is molded directly over a) the connection 28, b) at least a portion 32 of the wire 16? and c) at least a portion 34 of the terminal 20? to seal the connection, the portion of the wire, and the portion of the terminal between the inside region and outside region of the flange. In another embodiment a pre-formed plastic body encapsulates the connection 28 and the body is placed in a flange mold and plastic material is over molded to encapsulate the portion of the terminal while molding the flange.

Abstract: An electrical connector and a method for producing the same are described. The electrical connector has an insulative housing and a plurality of metallic wires. The insulative housing has a plurality of slots formed therein, and the slots are defined with a width less than that of the metallic wire. The metallic wires are set into the slots and further are folded. Each of the metallic wires has a contact portion protruding out of a surface of the insulative housing for electrically connecting the electrical component.

Abstract: An electrical connector including an electrical contact and an overmolded housing. The electrical contact includes an electrically conductive substrate of an alloy material and at least one sealing coating on a first section of the substrate. The sealing coating includes chromium and/or zinc. The overmolded electrical connector housing is overmolded onto at least a portion of the first section on the sealing coating. The sealing coating prevents a passage from forming at a joint between the contact and the overmolded housing for preventing flow of vapor and/or liquid and/or other fluid through the joint.

Abstract: An electrical connector including an electrical contact and an overmolded housing. The electrical contact includes an electrically conductive substrate of an alloy material and at least one sealing coating on a first section of the substrate. The sealing coating includes chromium and/or zinc. The overmolded electrical connector housing is overmolded onto at least a portion of the first section on the sealing coating. The sealing coating prevents a passage from forming at a joint between the contact and the overmolded housing for preventing flow of vapor and/or liquid and/or other fluid through the joint.

Abstract: A method of producing a battery-connecting plate by providing busbars which connect batteries together, attaching terminals to one end of wires to produce terminal-attached wires for detecting voltage of desired ones of the batteries, placing the terminal-attached wires in a predetermined layout in a wire protector, setting the busbars and wire protector in a mold with the burbars positioned corresponding to an arrangement of the batteries, injecting resin into the mold to produce a molded piece with the burbars and the terminal-attached wires therein, and cutting an element mount portion of each of the terminals and connecting a respective circuit protector element to the element mount portion in a bridging manner across the cut.

Abstract: An electrical connector (1) includes an elongate insulative housing (10) and a number of contacts (2). The insulative housing has two side walls (12) and a slot (14) between the side walls. Each side wall defines an elongate cavity (11) and a number openings (15). The contacts are received in inner surfaces (141) of the side walls. The openings extend inwardly from outer surfaces of the side walls to the contacts.

Abstract: A terminal block assembly for electrical generators, such as high speed AC generators used in aircraft, is made from components that are readily assembled and disassembled for ease of installation, maintenance, and repair. The terminal block assembly is formed of a terminal block and one or more terminal assemblies. The terminal block has a main body with at least an upper surface and a lower surface. A first cavity is formed in the main body lower surface, and an opening that extends through the main body between the upper surface and the first cavity. A threaded fastener is inserted into the opening and into the first cavity, and a bolt is coupled to the fastener to secure the fastener in the opening. Each terminal assembly is coupled to the terminal block and includes one or more electrically conductive terminal plates, feed-throughs, and slugs for connection to stator output leads, that are electrically and mechanically coupled together using electrically conductive fasteners.

Abstract: An apparatus and method of electrically connecting components of an implantable medical device are disclosed. One embodiment is an apparatus having at least one electrical connector comprising a tab section and a housing at least partially enclosing the electrical connectors, wherein the housing is molded into sealing engagement with the electrical connectors and the tab section is capable of removal from the electrical connector after the housing is molded.

Abstract: For miniaturizing and rationalizing the manufacturing process of contact devices for herring aids, it is proposed that an injection molded body be provided with metal contact springs according to the insert mold technology. Over and above this, wiring elements are applied on the injection molded body as interconnects. To this end, the injection molded plastic body provided with metal springs can be activated in specific patterns with, for example, a laser, and, subsequently, the activated portions are coated with conductive metal. Alternatively, the interconnects can also be printed onto the injection molded body.

Abstract: A method and an apparatus for providing a high efficiency seal in an electrical connector. The seal prevents the transmission or migration of components in the environment at one end of the electrical connector to the environment at the other end of the electrical connector. The electrical connector may be incorporated into an over-mold that contains other components. The electrical connector achieves the highly efficient seal through a combination of torturous path design, the incorporation of melt ribs, and may further involve the technique of impregnation.