A connector assembly (1) comprising a main connector (2) with a contact support (6), and a mating connector (3) that can be mated with the main connector (2), having a contact support (7), wherein the mating connector (3), in the plug-in region, is formed with a chamfer (10) that corresponds to the shape of the main connector (2) such that, during the mating process, the main connector (2) is inserted into the mating connector (3) in a predefined position, wherein the main connector (2) comprises two axially extending springs (8), arranged in opposition in the plug-in direction, and the mating connector (3) comprises two opposing slots (9), or vice versa, wherein a spring (8) corresponds to its respective slot (9), characterized in that the two springs (8) have different lengths.

Provided is a connector assembly. The connector assembly includes an adapter, a connector and a handle, where a first socket is formed at one end of the adapter, an adaptation slide extending inwards from the first socket is formed in an inner wall of the adapter, and an adaptation window is opened at one end of the adaptation slide close to the first socket; the connector is provided with an elastic piece, and the elastic piece is movable along a Z-axis direction; and the handle is connected to a rear end of the connector and is capable of sliding between a first position and a second position of the connector along an X-axis direction. The beneficial effect provided is as below. The handle always remains connected to the connector.

Provided is a connector assembly. The connector assembly includes an adapter, a connector and a handle, where a first socket is formed at one end of the adapter, an adaptation slide extending inwards from the first socket is formed in an inner wall of the adapter, and an adaptation window is opened at one end of the adaptation slide close to the first socket; the connector is provided with an elastic piece, and the elastic piece is movable along a Z-axis direction; and the handle is connected to a rear end of the connector and is capable of sliding between a first position and a second position of the connector along an X-axis direction. The beneficial effect provided is as below. The handle always remains connected to the connector.

A flat connector with a latch mechanism having two latch handle portions provided at opposite sides of the connector where the latch handle portions can be moved from an engagement position to a release position. The connector is an angular cable connector and for both handle portions, the direction of the path from the engagement position to the release position is towards the cable end of the connector. The latch handle portions are elastically biased towards their engagement position. The path from the engagement position to the release position is linear. The path from the engagement position to the release position is towards the cable end of the connector and extends in the plane of the handle portion.

An angled connector includes a connector housing, a terminal support held by the connector housing, and a first terminal held in the terminal support. The connector housing has a first terminal passage and a second terminal passage extending at an angle to the first terminal passage. The first terminal passage and the second terminal passage intersect one another in an intersection region. The terminal support is slidable relative to the connector housing along the first terminal passage from a first position to a second position. The first terminal at least partially extends into the first terminal passage. The first terminal is closer to the second terminal passage in the second position than in the first position, and the first terminal is at least partially arranged in the intersection region in the second position.

The present disclosure relates to a control module having a connector and a housing. The housing defining a first opening that receives the connector, and a hermetically sealed interior housing at least one electronic component. The electronic component is electrically coupled to the connector. The control module further includes a retaining clip in physical contact with the housing and mechanically coupling the at least one electronic component to the connector.

A connector comprises a base, a plurality of terminals and a detection portion. The detection portion comprises a first contact piece and a second contact piece. The first contact piece has a contact target portion. The second contact piece has a contact main portion and an intersecting portion. The contact main portion is resiliently deformable. The resilient deformation changes a contact state of the contact main portion relative to the contact target portion. The intersecting portion is, at least in part, positioned in a card accommodating portion. The intersecting portion intersects with both an up-down direction and a horizontal plane perpendicular to the up-down direction. When a card pushes the intersecting portion downward in the up-down direction upon accommodation of the card within the card accommodating portion, the intersecting portion resiliently deforms the contact main portion in the horizontal plane so that the contact state is changed.

A connector comprises a base, a plurality of terminals and a detection portion. The detection portion comprises a first contact piece and a second contact piece. The first contact piece has a contact target portion. The second contact piece has a contact main portion and an intersecting portion. The contact main portion is resiliently deformable. The resilient deformation changes a contact state of the contact main portion relative to the contact target portion. The intersecting portion is, at least in part, positioned in a card accommodating portion. The intersecting portion intersects with both an up-down direction and a horizontal plane perpendicular to the up-down direction. When a card pushes the intersecting portion downward in the up-down direction upon accommodation of the card within the card accommodating portion, the intersecting portion resiliently deforms the contact main portion in the horizontal plane so that the contact state is changed.

A wire connector strain relief apparatus is provided herein. The wire connector strain relief apparatus includes a body having a generally U-shaped cross-section, a first end, and a second end. The first end of the body is configured to receive a wire harness that includes one or more wires to be, or already, connected to an electrical connector. The second end of the body includes one or more structural features configured to engage with one or more structural features of an external surface of the electrical connector to attach to the electrical connector and minimize relative movement between the wire harness and the electrical connector.

A connecting device includes a plug connector receivable into a receiving space of a mating connector. In the connection position, a latching arm of the plug connector is engaged with a latch receiver of the mating connector. The plug connector has a securing unit for locking and releasing the locking arm. The mating connector has a counterstop element which, when the plug connector is introduced into the receiving space, strikes a deflection chamfer of the securing unit and deflects a securing arm of the securing unit perpendicularly to the direction of insertion and in parallel to a base side of the plug connector so that, in the connection position, a stop surface of the securing unit is arranged at an offset from a stopper element of the securing unit, and the securing unit is movable into the locked position.