An electrical connector includes at least two electrical connector elements extending side by side along a longitudinal direction, each of the electrical connector elements being connectable to a respective wire of an associated electrical cable. An electrical device is in electrical contact with the respective electrical connector elements. A flexible carrier surrounds the electrical connector elements annularly in cross section, and the electrical device is mounted on an inner side of the flexible carrier which faces the connector elements.

A universal cable system includes a cable, which may include a keyed profile and an optional, integrated pull cable for low-voltage applications in residential and commercial structures, both old and new construction, which may further includes a connector, which does not require individual splicing of the wires from the cable. The connector may be self-crimping or crimped with a tool. During installation of the connector onto the cable, conductors in the connector may be simultaneously spliced to the wires of the cable during crimping.

An electronic component unit of a wire harness includes a substrate on which an electronic component is mounted, a connector electrically connected to the substrate, and a connector fixing structure. The connector fixing structure includes a pair of notches that are provided facing each other on the substrate in a facing direction; a pair of press fitting plates that are provided on the connector and press-fitted into the respective notches; a positioning rib formed projecting from each of the press fitting plates toward the inside in the facing direction, having a width smaller than the width of the press fitting plates, and brought into contact with the substrate while the press fitting plates are press-fitted into the respective notches; and a deformation acceptable space provided adjacent to the outside of the press fitting plates that are press-fitted into the respective notches, in the facing direction.

A linear light connector includes a connector base comprising a bottom section, and first and second sidewalls. A first portion of the connector base is configured to receive a first piece of linear light therein. One or more electrical contacts extend along a length of the connector base and include at least one tip extending above a surface of the bottom section within the first portion. The tips may be arranged to align with electrical conductive paths of a piece of linear light positioned in the first portion. A cap may connect to the connector base to apply a downward force to the linear light and engage the linear light with the tips of the contacts.

A connector includes a base member having a first surface facing a bottom surface of a flexible substrate, a contact having a second surface facing a conductive portion exposed on a top surface of the flexible substrate, a projection protrudingly formed at one of the base member and the contact, a projection accommodating portion of recess shape disposed at the other of the base member and the contact and configured to accommodate the projection as sandwiching the flexible substrate therebetween, and a blade member configured to cut the flexible substrate at a position corresponding to the projection when the projection is accommodated in the projection accommodating portion with the flexible substrate being sandwiched therebetween.

A connector includes a base member having a first surface facing a bottom surface of a flexible substrate, a contact having a second surface facing a conductive portion exposed on a top surface of the flexible substrate, a projection protrudingly formed at one of the base member and the contact, a projection accommodating portion of recess shape disposed at the other of the base member and the contact and configured to accommodate the projection as sandwiching the flexible substrate therebetween, and a blade member configured to cut the flexible substrate at a position corresponding to the projection when the projection is accommodated in the projection accommodating portion with the flexible substrate being sandwiched therebetween.

A connector assembly for voltage monitoring of bus bars electrically connecting adjacent battery cells of a battery module includes a connector having a plurality of terminals configured to be mated with a control module connector associated with the battery module. A multi-wire planar cable extends from the connector. The multi-wire planar cable has a plurality of wires terminated to corresponding terminals and a common jacket for the plurality of wires. The jacket has grooves between adjacent wires for controlled separation of the wires and surrounding jacket portions at a sensor end of the multi-wire planar cable to define separated planar cable segments. The separated planar cable segments are routed to different areas for termination to different voltage sensors associated with corresponding bus bars.

A connector includes a cable tray configured to receive and retain a cable in a stable position and couple with a top cap configured to create an electrical connection with the cable as the top cap is manipulated in a predetermined manner while coupled with the cable tray. An upper surface of the cable tray is configured to receive the cable (e.g., while the cable is generally parallel with the longitudinal axis of the cable tray). The cable tray also includes a finger extending beyond the first end for some distance longitudinally. The finger includes a protrusion that protrudes to some extent in a transverse direction so that a cable-accommodating gap is defined between the protrusion and the first end. The protrusion is configured to bear against the cable and retain the cable in the stable position when the cable is inserted between the protrusion and the first end (before, during and/or after an electrical connection is established).

A connector includes a cable tray configured to receive and retain a cable in a stable position and couple with a top cap configured to create an electrical connection with the cable as the top cap is manipulated in a predetermined manner while coupled with the cable tray. An upper surface of the cable tray is configured to receive the cable. The cable tray also includes a finger extending beyond the first end for some distance longitudinally. The finger includes a protrusion that protrudes to some extent in a transverse direction so that a cable-accommodating gap is defined between the protrusion and the first end. The protrusion is configured to bear against the cable and retain the cable in the stable position when the cable is inserted between the protrusion and the first end (before, during and/or after an electrical connection is established).

The retainability and electric connection reliability of a plate-shaped signal transmission medium can be increased by a simple configuration while the operability of an actuator is improved. Pre-pressing protruding portions which create a clicking sensation of a turning operation of the actuator are provided in part of a region in a longitudinal direction of the actuator so that the pressing force of the pre-pressing protruding portions with respect to the plate-shaped signal transmission medium is applied to the part in the longitudinal direction of the actuator, and the pressing force of the pre-pressing protruding portions with respect to the plate-shaped signal transmission medium is prevented from being largely increased even when the actuator is enlarged in the multipolar arrangement direction. As a result, the operating force for the actuator is reduced, and, on the other hand, the final fixation state of the plate-shaped signal transmission medium is configured to be good by maintaining the pressing force of the medium pressing portion.