A connection body comprises a body having upper and lower surfaces, a first path and a second path. The first path has a first wired portion configured to be connected to a first core wire of a cable structure and a first terminal portion coupled to the first wired portion by a first coupling portion. The first wired portion, the first terminal portion and the first coupling portion are formed on the upper surface of the body. The second path has a second wired portion configured to be connected to a second core wire of the cable structure and a second terminal portion coupled to the second wired portion by a second coupling portion. The second wired portion is formed on the upper surface of the body. The second terminal portion is formed on the lower surface of the body.

The first connector body includes: a recess mating with the second connector body; a first side wall part extending in the longitudinal direction so as to define both sides of the recess; and a projection extending in the longitudinal direction of the recess so as to mate with a recessed groove of the second connector body, the first terminal includes a first contact part contacting the second terminal in a recessed groove between the projection and the first side wall part, the first connector further includes a shield plate which is held in the center in the width direction of the projection so as to extend in the longitudinal direction, the second reinforcing bracket includes a reference potential connection part connected to a reference potential trace; and a tongue part contacting both ends in the longitudinal direction of the shield plate, and the second connector further includes a reference potential terminal which includes a tail part connected to the reference potential trace along with a contact part contacting the middle of the shield plate in the longitudinal direction.

The first connector body includes: a recess mating with the second connector body; a first side wall part extending in the longitudinal direction so as to define both sides of the recess; and a projection extending in the longitudinal direction of the recess so as to mate with a recessed groove of the second connector body, the first terminal includes a first contact part contacting the second terminal in a recessed groove between the projection and the first side wall part, the first connector further includes a shield plate which is held in the center in the width direction of the projection so as to extend in the longitudinal direction, the second reinforcing bracket includes a reference potential connection part connected to a reference potential trace; and a tongue part contacting both ends in the longitudinal direction of the shield plate, and the second connector further includes a reference potential terminal which includes a tail part connected to the reference potential trace along with a contact part contacting the middle of the shield plate in the longitudinal direction.

A vehicular camera includes a front housing portion, a first circuit board having an imager, a second circuit board in board-to-board electrical connection with the first circuit board, and a rear housing portion having a connector for electrically connecting to an electrical connection of a wire harness of a vehicle. The rear housing portion joined with the front housing portion forms a camera housing. The connector of the rear housing portion includes a multi-pin connector having at least three terminals that, with the rear housing portion joined with the front housing portion, electrically connect to respective terminals of the electrical connector at the second circuit board. An electrically conductive metallic shield element is disposed at the rear housing portion and contacts the electrical connector at the second circuit board. The vehicular camera is configured to be mounted at a rear portion of the vehicle and viewing rearward of the vehicle.

Examples of electrical connectors that incorporate electromagnetic interference (EMI) absorbing materials are described. In one example, an electrical connector includes a first pair of conductors, a second pair of conductors, and electromagnetic interference (EMI) absorbing material at least partially separating the first pair of conductors from the second pair of conductors. Each of the first and second pairs of conductors defines one of a differential pair or a signal conductor/ground pair. The EMI absorbing material may be configured to attenuate, primarily by absorption, an electromagnetic field generated due to transmission of electrical signals via one of the first pair and second pair of conductors to reduce the electromagnetic inference from the electromagnetic field on the other of the first pair and second pair of conductors.

Connectors providing solderless contact between conductors and a plurality of contact pads disposed on a substrate are disclosed. Connectors accommodating cables including pairs of insulated conductors are disclosed. Connector assemblies including frames for reversibly mounting the connectors with substrates having a plurality of contact pads are also disclosed.

Connectors providing solderless contact between conductors and a plurality of contact pads disposed on a substrate are disclosed. Connectors accommodating cables including pairs of insulated conductors are disclosed. Connector assemblies including frames for reversibly mounting the connectors with substrates having a plurality of contact pads are also disclosed.

The present invention relates to an electrical connector, which has an insulation body, a shielding plate, a plurality of grounding terminals and conducting terminals accommodated in the insulation body. Each grounding terminal is formed by bending a linear wire and has an upper contacting portion, a bending portion extending from the upper contacting portion, and a lower contacting portion extending from the bending portion, wherein the upper contacting portion is parallel to the lower contacting portion. Therefore, the crosstalk between the upper-row signal terminals and the lower-row signal terminals is reduced, and the shielding effect is enhanced.

The present invention relates to an electrical connector, which has an insulation body, a shielding plate, a plurality of grounding terminals and conducting terminals accommodated in the insulation body. Each grounding terminal is formed by bending a linear wire and has an upper contacting portion, a bending portion extending from the upper contacting portion, and a lower contacting portion extending from the bending portion, wherein the upper contacting portion is parallel to the lower contacting portion. Therefore, the crosstalk between the upper-row signal terminals and the lower-row signal terminals is reduced, and the shielding effect is enhanced.

Provided is a connector device which includes: a first connector; and a second connector. In the connector device, the first connector includes a first housing and a first terminal provided in the first housing, the second connector includes a second housing and a second terminal and an observation member provided in the second housing, the observation member includes a contact portion and an observation portion, the contact portion is configured to contact the first connector when at least part of the first connector is inserted into a predetermined portion of the second housing, and the observation portion is provided observable from an outside of the second connector at least either one of before or after connection between the first terminal and the second terminal, and is configured such that an observation state of the observation portion from the outside of the second connector changes in response to contact between the first connector and the contact portion.