Abstract: An electrical connection comprises a first conductor and a second conductor electrically connected to the first conductor. The first conductor has a first contact section with a first contact face laterally delimited by a first side face. The second conductor has a second contact section with a second contact face surrounded by a rim having a second side face. The second side face limits a contact space above the second contact face and the first contact face is arranged on the second contact face. A reservoir space is arranged between the first side face of the first contact face and the second side face of the rim, the reservoir space surrounds the first contact face and a sealing material is arranged in the reservoir space. The sealing material forms a sealing ring that seals an interface between the first contact face and the second contact face.

Abstract: A connection member for connecting to a busbar of a battery includes a first section adapted to be connected to a battery cell, a second section adapted to be connected to the busbar attached to a support structure for the battery cell, and a pair of bends between the first section and the second section.

Abstract: An electrical connection assembly includes a cable having a conductor, a metallic textile in electrical contact with the conductor, and a crimp element creating a pressure between the conductor and the metallic textile.

Abstract: An electric device comprises an internal wiring and a housing. The housing includes a base and a cover. The base has a wiring guide member and a terminal area in which the internal wiring is connected to an outside electric conductor. The cover has a trough section into which the terminal area at least partly extends. The trough section has a trough wall which abuts the base to form a sealing surface. The wiring guide member supports the internal wiring at a position spaced apart from the sealing surface and opposite the trough wall and the internal wiring extends over the trough wall and into the trough section to the terminal area.

Abstract: An electrical connection assembly includes a cable having a conductor, a metallic textile in electrical contact with the conductor, and a crimp element creating a pressure between the conductor and the metallic textile.

Abstract: A contact for an electrical connector is formed of a single piece of stamped and bent sheet metal. The contact includes a body having a base, a limit stop, and a latching tongue connected to the body at the base and having a free end opposite the base. The latching tongue is spaced apart from the limit stop in a resting position of the latching tongue and the latching tongue abuts the limit stop in a deflected position of the latching tongue.

Abstract: A connection member for connecting to a busbar of a battery includes a first section adapted to be connected to a battery cell, a second section adapted to be connected to the busbar attached to a support structure for the battery cell, and a pair of bends between the first section and the second section.

Abstract: An electrical connection comprises a first conductor and a second conductor electrically connected to the first conductor. The first conductor has a first contact section with a first contact face laterally delimited by a first side face. The second conductor has a second contact section with a second contact face surrounded by a rim having a second side face. The second side face limits a contact space above the second contact face and the first contact face is arranged on the second contact face. A reservoir space is arranged between the first side face of the first contact face and the second side face of the rim, the reservoir space surrounds the first contact face and a sealing material is arranged in the reservoir space. The sealing material forms a sealing ring that seals an interface between the first contact face and the second contact face.

Abstract: A contact for an electrical connector is formed of a single piece of stamped and bent sheet metal. The contact includes a body having a base, a limit stop, and a latching tongue connected to the body at the base and having a free end opposite the base. The latching tongue is spaced apart from the limit stop in a resting position of the latching tongue and the latching tongue abuts the limit stop in a deflected position of the latching tongue.

Abstract: An electric device comprises an internal wiring and a housing. The housing includes a base and a cover. The base has a wiring guide member and a terminal area in which the internal wiring is connected to an outside electric conductor. The cover has a trough section into which the terminal area at least partly extends. The trough section has a trough wall which abuts the base to form a sealing surface. The wiring guide member supports the internal wiring at a position spaced apart from the sealing surface and opposite the trough wall and the internal wiring extends over the trough wall and into the trough section to the terminal area.

Abstract: A tube assembly includes glass fiber, a heat-recovered heat recoverable tube surrounding at least a portion of the glass fiber, an adhesive having an adhesive composition comprising a reactive polyethylene and a reactive propylene copolymer. The adhesive adhesively couples the heat-recovered heat recoverable tube to the glass fiber. The adhesive composition includes a reactive polyethylene, such as, a maleic anhydride modified linear low density polyethylene resin, and a reactive propylene copolymer, such as, a maleic anhydride grafted polypropylene copolymer. The adhesive composition is capable of adhering to glass fiber with an axial load of 5 N at 70° C. for a period of at least 60 seconds.

Abstract: An electrical connector includes a housing and plural contact modules stacked adjacent to each other and held by the housing. Each contact module includes a contact array, a dielectric holder, and lossy blocks. The contact array includes signal contacts and ground contacts arranged in alternating pairs along a length of a column. The dielectric holder surrounds and engages the signal and ground contacts along intermediate segments thereof to secure the signal and ground contacts in place. The lossy blocks are mounted to the intermediate segments of the ground contacts within the dielectric holder. Each lossy block is associated with a corresponding pair of ground contacts and engages at least one of the ground contacts in the pair. The lossy blocks are composed of a lossy material that has a greater loss tangent than a low loss material that forms the dielectric holder.

Abstract: A header transition connector includes a header housing having a separating wall separating a first cavity from a second cavity. Header signal contacts are held by the header housing. The header signal contacts are arranged in pairs carrying differential signals. The header signal contacts have first mating ends in the first cavity for mating with a first receptacle connector. The header signal contacts have second mating ends in the second cavity for mating with a second receptacle connector. Header ground shields are held by the header housing. The header ground shields have first mating ends in the first cavity for mating with the first receptacle connector. The header ground shields have second mating ends in the second cavity for mating with the second receptacle connector. At least a group of the header ground shields are electrically commoned with each other within the header housing.

Abstract: The disclosure relates to a flat contact for insertion in a receiving member of a connector in an insertion direction (E), a receiving block for inserting the flat contact, and a connector comprising a receiving block and/or a flat contact. A solution is provided in which the positioning of a flat contact relative to the receiving block is simple and precise. This is achieved by a flat contact for insertion in a receiving member of a connector in an insertion direction (E) comprising a clamping portion having clamping projections which protrude in a width direction (B) and a positioning portion which has at the narrow sides thereof guiding faces which extend parallel with the insertion direction (E), the guiding faces projecting beyond the clamping projections in the width direction (B).

Abstract: An antenna is provided, having a foil sheet, an antenna structure and a connector. The foil sheet includes a front side and a back side, while the antenna structure is printed on the front side using a conductive ink. The antenna structure includes a contact pad. The connector is connected to the contact pad and includes a metallic blade extending through the foil sheet and the contact pad.

Abstract: The present invention relates to a coil form (100) for mounting on a magnet core (118) for a rotating electrical machine or a resolver and to a corresponding magnet core. The present invention further relates to a magneto-electric angle sensor, in particular a reluctance resolver, the stator of which is constructed by the principles according to the invention. The coil form has a winding form (102) for applying a winding, the winding form (102) comprising a recess (124) for receiving a tooth (116) of the magnet core (118), at least one holding rib (114) being integrally formed and in cooperation with a holding structure (120) of the magnet core (118) fixing the coil form to the tooth. The magnet core comprises a plurality of lamellae (136) manufactured from sheet metal, which are layered on top of one another in a plane-parallel manner and interconnected, every two lamellae which lie on top of one another being rotated through an offset angle relative to one another to form the holding structure (120).

Abstract: A high speed input/output plug assembly is disclosed having a plug body. A plurality of conductive traces are disposed on a surface of the plug body and connectable to an input/output cable. An electrically conductive grounding layer is positioned within the plug body and electrically insulated from the conductive traces, and has an opening extending through the grounding layer and below the conductive traces.

Abstract: A coil wire support element is provided and includes a support member and a coil wire section. The support member includes a front wall and a back wall arranged at the respective ends of the support member. The front wall and back wall extend away from the support member. The coil wire section includes a wire coiled on the support member in a coil wire layer such that a height h3 of the coil wire layer is larger a height h1 of the front wall.

Abstract: The invention relates to an electromagnetic actuator comprising a wire coil, an armature and a catch, wherein the armature can be moved in an actuation direction, and wherein the catch secures the armature within the electromagnetic actuator. In order to secure an armature of the electromagnetic actuator, extra parts are mounted to the electromagnetic actuator or the armature is attached via a spring. This results in bigger sizes or insufficient stopping characteristics. The present invention overcomes these disadvantages by locating a catch inside the electromagnetic actuator.

Abstract: The present invention relates to a reluctance resolver (100) with an at least partially soft magnetic stator (104) and an at least partially soft magnetic rotor (102) which oppose each other by forming an air gap. The magnetic resistance in the air gap changes periodically on account of a configuration of the rotor that varies over the circumference. The angle sensor has a magnetic flux transmitter which is arranged on the stator and generates a predefined magnetic flux distribution in the air gap via at least one pair of poles. Furthermore, a magnetic flux receiver, which measures the intensity of the magnetic field via at least two pairs of signal poles arranged offset from one another at an angle, is arranged on the stator, wherein an angle value for a position of the rotor in relation to the stator can be derived from the two receiver signals.