The terminal structure includes an electric wire including a core wire and a terminal member attached to the electric wire. The terminal member includes a joining portion to which the core wire is joined and the sealing portion surrounding the joining portion and including an opening portion having the joining portion exposed therethrough. The core wire is joined to the joining portion through the opening portion and is in close contact with the sealing portion annularly around the opening portion.

The terminal structure includes an electric wire including a core wire and a terminal member attached to the electric wire. The terminal member includes a joining portion to which the core wire is joined and the sealing portion surrounding the joining portion and including an opening portion having the joining portion exposed therethrough. The core wire is joined to the joining portion through the opening portion and is in close contact with the sealing portion annularly around the opening portion.

Provided is a signal cable including a connector (20) including a shell (21) that houses a connection terminal (22) to be connected to a connection terminal included in an electronic device and that is electrically connected to a frame ground of the electronic device in a state in which the connector (20) is connected to the electronic device, a cable body (10) including a ground connection wire electrically connected to the shell (21), and a supporting member (40) having a tubular shape and having a higher rigidity than the surface of the cable body (10). The connector-side end portion of the cable body (10) is led inside the supporting member (40), the connector-side end portion of the ground connection wire includes a folded portion that folded, and is disposed outside the supporting member (40), and the shell (21) is fixed to the cable body (10) in a state in which the folded portion is sandwiched between the shell (21) and the supporting member (40).

An electrical connector includes a compression device defining an aperture and is configured to receive a first portion of a base row of wires and a first portion of a core of an electrical conductor within the aperture. An outer tube defines a central through hole and is configured to receive the compression device within the central through hole. A first end of the outer tube is configured to be compressed around the first end of the compression device, and a first portion of the core of the associated electrical conductor to create a compressed assembly. The compressed assembly is contiguous with a second portion of the base row of wires and a second portion of the core of the associated electrical conductor.

An electrical connector includes a compression device defining an aperture and is configured to receive a first portion of a base row of wires and a first portion of a core of an electrical conductor within the aperture. An outer tube defines a central through hole and is configured to receive the compression device within the central through hole. A first end of the outer tube is configured to be compressed around the first end of the compression device, and a first portion of the core of the associated electrical conductor to create a compressed assembly. The compressed assembly is contiguous with a second portion of the base row of wires and a second portion of the core of the associated electrical conductor.

In a joining method of an electric wire, an end of a first conductor is held by a holding surface of a first jig electrode from an outer circumference side and an end of a second conductor is held by a holding surface of a second jig electrode from an outer circumference side to butt and join the ends of the first conductor and the second conductor in the axial direction while heating the ends. Then, a melted material is bulged outward from an outer circumferential surface of a joining portion to a bulge molding portion formed to surround a joining portion of the ends of the first conductor and the second conductor.

An aluminum electric wire crimping terminal formed by connecting an aluminum electric wire and a crimping terminal includes a low compression concave portion and a high compression concave portion in a crimping portion. The high compression concave portion compresses a plurality of core wires with a stronger compression force than a compression force of the low compression concave portion.

A cable assembly comprises a cable and a conductive member. The cable extends in a longitudinal direction. The cable has a first location and a second location in the longitudinal direction. The cable comprises a conductive portion and an outer cover. The outer cover covers the conductive portion. The conductive member is attached with the cable. The conductive member has a first portion, a second portion and a planar portion. The first portion is positioned at the first location in the longitudinal direction. The first portion is crimped to the outer cover. The second portion is positioned at the second location in the longitudinal direction. The second portion is crimped to the conductive portion. The planar portion extends from the first location to the second location in the longitudinal direction.

A method including the steps of securing a plurality of contact subassemblies to a mold surface at longitudinally spaced locations within a mold with resilient material located between the contact subassemblies and the mold surface, the contact subassemblies including, prior to being placed into the mold, an electrically conductive contact having a flat portion defining lateral ends and side portions associated with the lateral ends of the flat portion and a lead wire secured to the electrically conductive contact, introducing resilient material into the mold to form an electrode array blank including a flexible body defining an exterior surface and the electrically conductive contacts below the exterior, and forming a plurality of windows in the electrode array blank that extend through the exterior surface of the flexible body to the electrically conductive contacts.

A method including the steps of securing a plurality of contact subassemblies to a mold surface at longitudinally spaced locations within a mold with resilient material located between the contact subassemblies and the mold surface, the contact subassemblies including, prior to being placed into the mold, an electrically conductive contact having a flat portion defining lateral ends and side portions associated with the lateral ends of the flat portion and a lead wire secured to the electrically conductive contact, introducing resilient material into the mold to form an electrode array blank including a flexible body defining an exterior surface and the electrically conductive contacts below the exterior, and forming a plurality of windows in the electrode array blank that extend through the exterior surface of the flexible body to the electrically conductive contacts.