A contact unit for a fast charging system for electrically driven vehicles and a contact device and a fast charging system are provided. A charging contact device and a contact device have a contact unit carrier, the contact unit carrier having the contact unit, a charging contact of the charging contact device being electrically connectable with the contact unit to form a contact pair, the contact device comprising a positioning device, the contact unit carrier positionable relative to the charging contact device by the positioning device to form an electrically conductive connection to a vehicle and a fixed charging station, the contact unit having a contact element displaceable relative to the contact unit carrier in the direction of its longitudinal axis in a contact element guide of the contact unit, the contact unit having a connecting lead for connecting to the vehicle and attached to a contact element.

A probe pin includes a coil spring extending and contracting along a center line, a first contact disposed on one side of the center line and having a rectangular cross section, and a second contact disposed on the other side of the center line and having a rectangular cross section. The first contact and the second contact are supported so as to be reciprocable via the spring coil and are electrically connected to each other. In particular, a contact surface of at least one of the first contact and the second contact is an inclined surface inclined so as to descend along a thickness direction.

A coaxial cable connector includes a connector body having a longitudinal axis passing through first and second opposed body ends, a connector center conductor for transporting a signal through the connector, and a coil spring that is coiled about the longitudinal axis. The second body end is for engaging a male coaxial cable connector, and the coil spring urges an electromagnetic shield to protrude from the second body end.

There is provided a power connector system for electrically connecting a power source to a device. The power connector comprises a first component and a second component which each have a plurality of electrical contacts disposed on a face thereof. The contacts each include an electrically resistive element having an impedance. When the first and second components are coupled, a logic unit controls enables current flow between the first and second components based on the impedances.

An electrical connection assembly includes a main body and a spring. One end of the main body is configured to be in contact with a device under test. The spring is sleeved around the main body. Two ends of the spring are respectively defined as a first end and a second end. The first end is abutted against a limiting protrusion, and a concealed section of the main body is correspondingly arranged inside of the spring. The spring has a first tightly-coiled section, an elastic section, and a second tightly-coiled section in sequence from the first end to the second end. A pitch of the spring within the elastic section is greater than a pitch of the spring within the first tightly-coiled section, and the pitch of the spring within the elastic section is greater than a pitch of the spring within the second tightly-coiled section.

The disclosed invention relates to a method of manufacturing a housing-integrated board mating connector, the method including: preparing a housing of an electrical device, the housing having a housing insertion hole formed therein and a part or the entirety of the housing being made of a conductive metal material; inserting a cylindrical ground gasket into the housing insertion hole; preparing a dielectric part and signal terminal part assembly in which a dielectric part surrounds a signal terminal part; and inserting the dielectric part and signal terminal part assembly into an inner circumferential surface of the ground gasket.

An apparatus comprising an interconnect comprising a conductive core; a first conductive layer connected to the conductive core and extending parallel to the conductive core towards a first end of the conductive core; a second conductive layer connected to the conductive core and extending parallel to the conductive core towards a second end of the conductive core; a first non-conductive layer between the conductive core and the first conductive layer; and a second non-conductive layer between the first conductive layer and the second conductive layer.

A system and method for coupling is described. The system includes, a printed electronic circuit having one or more conductive traces disposed on a flexible substrate The printed electronic circuit includes one or more magnetic couplers disposed on the flexible substrate. The system includes a magnetic connector having one or more magnets that each magnetically attach to a corresponding one of the one or more magnetic couplers The magnetic connector includes one or more spring-loaded pins each aligned with and electrically coupled to a corresponding one of the one or more conductive traces.

A method for upgrading an automatic testing system includes electrically connecting at least one pogo pin attaching device to an expansion instrument and a pogo pin of a pogo pin interface of the automatic testing system wherein the pogo pin attaching device comprises at least one metal attaching member and at least one cable, each of said at least one cable having two opposite ends, a first end electrically connected to the metal attaching member and a second end electrically connected to the expansion instrument, and the metal attaching member attaches to the pogo pin. In response to operating the automatic testing system, electrically connecting the pogo pin to a subject so that a measurement path is established between the subject and the expansion instrument through the pogo pin attaching device, wherein the measurement path is configured to connect signals for upgrading the automatic testing system.

An assembly for passing controlled impedance electrical signals between two different environments via feedthroughs in a feedthrough block. The feedthrough has a signal coupling, a dielectric surrounding the signal coupling, and a ground coupling surrounding the dielectric. An electrically insulating block has an electrically conductive signal link and discrete electrically conductive ground links surrounding the signal link. An electrically conductive block has a separate dielectric spacer and signal link through the spacer. The junctions between the block, links, and spacer are sealed to hermetically separate the two environments. In one method, the components are press fit, leaving no gap between adjacent components. In another method, potting material is forced into the junctions between components.