An electrical connector (1) includes: a housing (60); at least one contact (20) that is housed in a housing hole (64) including the body (63) of the housing, and extends in a predetermined direction from the housing body (63); and a guide (65) that is disposed contiguously to the housing body (63), and extends from the housing in the predetermined direction. The size of a portion of the guide (65), extending from the housing body (63), is greater than the size of a portion of the contact (20), extending from the housing body (63). The electrical connector (1) is mated with a mating electrical connector and prevents positional deviation between contacts in a pair, which are mated to each other, in a case in which such connectors are connected while being mated to each other.

In an aspect a connector for charging an electric vehicle. A connector includes a coupling mechanism. A coupling mechanism is configured to mate with an electric vehicle port of an electric vehicle. A coupling mechanism includes a fastener for removable attachment with an electric vehicle port. A connector includes at least a direct current conductor. At least a direct current conductor is configured to supply a direct current to an electric vehicle. A connector includes a power supply circuit. A power supply circuit is configured to regulate a direct current supplied to an electric vehicle as a function of a power threshold.

A connector including: (a) a terminal block; (b) an elongated busbar which is inserted in an insertion hole provided in the terminal block so as to be held by the terminal block in a cantilever manner; (c) a seal member which is disposed between the busbar and a wall surface of the insertion hole and which closes a gap defined between the busbar and the wall surface of the insertion hole; and (d) a protection member which is disposed in the gap defined between the busbar and the wall surface of the insertion hole and which is located between the seal member and an opening of the insertion hole.

The invention relates to a resolver (1) for an electric machine, comprising a resolver stator (2) and a connection module (3). The resolver stator (2) and the connection module (3) are formed as a single piece. The connection module (3) comprises a first plugging portion (4), which has at least one first contact pin (6) and at least one second contact pin (7), and a second plugging portion (5), which has at least one third contact pin (8). The first contact pin (6) is electrically connected to the resolver stator (2), and the second contact pin (7) is electrically connected to the third contact pin (8).

In a structure in which a cable is installed into a connector is provided. A back retainer is arranged in a compressed state between an inner circumferential surface of a cylindrical portion, included in a connector body and extending in the axis line direction, and an outer circumferential surface of the cable. The back retainer includes a main annular portion which is configured such that a compression amount on the back retainer in the radial direction centered on the axis line direction gradually increases as the compression amount goes from one side toward the other side. The back retainer includes an engaging protrusion configured to prevent the back retainer from detaching from the cylindrical portion on an outer circumferential surface of the back retainer.

The invention relates to an electrical conductor for conducting electrical current through a housing, wherein a sealing body made of an elastic material is arranged on the electrical conductor, wherein the sealing body encloses the electrical conductor in a first sealing section radially surrounding the electrical conductor, wherein a housing part is arranged on the electrical conductor. The housing part radially encloses at least part of the surface of the sealing body, which is not in contact with the electrical conductor in the first sealing section, in a second sealing section, wherein the elastic material of the sealing body comprises at least one hollow chamber and/or is an elastomer foam. The invention further relates to a corresponding method for manufacturing.

A linear motor connector system comprises a first linear motor, a second linear motor, and a first connector. The first connector includes a first plug holder electrically connected to the first linear motor and positioned in a recessed portion formed on an exterior face of a connecting portion of the first linear motor. The first connector further includes a first tab holder electrically connected to the second linear motor. The first tab holder is positioned in a recessed portion formed on an exterior face of a connecting portion of the second linear motor and faces the first plug holder along a direction of connection of the linear motors.

A circuit board arrangement (100) for a motor controller in a motor housing (50) has at least one first populated circuit board (LP1) and one second populated circuit board (LP2). Contact elements (20) are plugged together in the plug-in direction (S) in order to produce a detachable electrical connection with the first circuit board (LP1). An alignment and guidance device (LP3) protrudes from the first circuit board (LP1) in the plug-in direction (S) toward the second circuit board (LP2). In the assembled state, the contact elements (20) are completely in the plugged-in state with mating contacts (10) of the first circuit board (LP1). An end-side portion (30), of the device (LP3), protrudes through a gap (21) in the second circuit board. The contact elements (20) protrude from or out of the second circuit board (20) in different lengths.

A connector comprises a housing and a lock connected to the housing. The lock has a base extending in a mating direction, a bend extending continuously from a rear end of the base in the mating direction and formed in a U-shape, and a press-fitting protrusion extending from an end of the bend opposite the base. The bend has a bend face facing in the mating direction and is separated from the housing by a bend gap. The press-fitting protrusion is press-fitted in the housing.

A motor includes a commutator, a bracket including a conductive brush, first and second wall parts, and first and second deformable parts. The conductive brush is in contact with the commutator. The first wall part includes a first surface extending along a first surface of the conductive brush. The second wall part includes a second surface extending along a second surface of the conductive brush located on a side opposite the first surface of the conductive brush. The first deformable part is in contact with both the first surface of the conductive brush and the first surface of the first wall part, and is deformable in response to movement of the conductive brush. The second deformable part is in contact with both the second surface of the conductive brush and the second surface of the second wall part, and is deformable in response to movement of the conductive brush.