A flag shape contact includes a substrate, and a plug-in structure for receiving a mating contact. The plug-in structure extends from the substrate in a first direction. A riveting structure is provided for riveting or connecting a wire conductor to the contact. The riveting structure extends from the substrate in a second direction, distinct from the first direction. The riveting structure is disposed outside an extension area of the plug-in structure in the first direction.

A method includes a placing step in which an end portion of a covered electric wire is placed on an inner surface of a barrel portion along an axial direction such that a tip of the aluminum core wire overlaps a second portion of a seal member attached close to a terminal portion, and a crimping step in which the barrel portion is wound around and crimped to the end portion, thereby fixing the crimp terminal to the end portion and sealing, with the seal member, a space between the inner barrel piece and the outer barrel piece, an opening of the barrel portion formed cylindrical located on a side of the terminal portion, and a space between the covered portion and the barrel portion.

An electrical connection device comprises a cable, a ferrule, and a first electrical contact. The cable has an outer conductor surrounding an inner conductor. The ferrule is mechanically connected to the outer conductor. The first electrical contact is electrically connected to the inner conductor.

An electrical terminal includes a crimp barrel having an interior side and an exterior side. The interior side of the crimp barrel defines a channel that extends along a longitudinal axis. The crimp barrel is configured to mechanically hold and electrically connect to one or more electrical conductors of an electrical device received in the channel. The crimp barrel includes multiple primary serrations spaced apart along the longitudinal axis. The primary serrations are groove-shaped recesses formed along the interior side. Adjacent primary serrations are separated from one another by a band. The crimp barrel further includes at least one micro-serration on the band. Each micro-serration is a groove-shaped recess formed along the interior side that has a smaller size relative to the primary serrations.

An electrical crimp contact that crimps onto an electrical cable has a conductor crimp region for an electrical connection of a conductor of the cable, the conductor crimp region having a fixing device for fixing the conductor. In a blank of the contact, the fixing device of the conductor crimp region extends at an oblique angle with respect to a longitudinal axis of the contact.

A crimp-connection structural body, a wire harness, a method of manufacturing a crimp-connection structural body, and a manufacturing device are provided. The crimp-connection structural body includes an insulated wire formed by covering a conductor by an insulating cover, and a crimp terminal having a crimp section allowing connection by crimp of a conductor exposed portion formed by exposing the conductor. The crimp section is formed of a closed-barrel-type crimp section, and a cross-sectional shape of the crimp section in a radial direction is formed into an approximately recessed cross-sectional shape having a crimp recessed portion formed by indenting by inclined portions inclined from positions spaced-apart from each other by a predetermined distance. The predetermined distance is set to 90% or less of an entire width of the crimp section. An opposedly facing angle made by the inclined portions is set to a value which ranges from 10° to 120° inclusive.

A signal transmission terminal, a sampling device, a battery module and a device are disclosed. The signal transmission terminal is used for the sampling device. The sampling device includes a conductive sheet. The signal transmission terminal includes a first connecting portion, a second connecting portion and a bendable portion. The first connecting portion is used for being connected to the conductive sheet and is provided with a raised portion. The second connecting portion is connected to the first connecting portion and is used for being connected to a sampling object. The bendable portion is used for being connected to the first connecting portion. The bendable portion is configured to press the conductive sheet between the first connecting portion and the bendable portion after being bent. The above signal transmission terminal can improve connection stability with the conductive sheet, such that reliability of sampling precision can be guaranteed.

A staking terminal includes a conductor portion having a conductor platform, a first plurality of tines extending from the conductor platform, and a conductor crimp extending from the conductor platform. The conductor platform and the tines are not coplanar in a folded configuration. The staking terminal further includes a ground portion having a ground platform, a second plurality of tines extending from the ground platform, and a first braid crimp extending from the ground platform. The ground platform and the tines are not coplanar in the folded configuration.

In a connection terminal including a box-shaped connection portion that has a bottom wall, one side wall and another side wall that are erected on both sides of the bottom wall, and a ceiling wall, the ceiling wall has a lower ceiling wall obtained by bending the one side wall toward the other side wall, and an upper ceiling wall obtained by bending the other side wall toward the one side wall at an upper bent portion and is superposed above the lower ceiling wall, a protrusion is provided on a side of the lower ceiling wall close to the lower bent portion, and a locking portion is provided on a side of the upper ceiling wall close to the lower bent portion.

A wire with terminal WT1 is provided with a wire 2 including a core 2B and an insulation coating 2C covering around the core 2B, and a terminal 1 including a coating crimping portion 50 crimped to the insulation coating 2C. The wire 2 is pulled out rearward from the terminal 1. A water cut-off member 60 for suppressing liquid intrusion into the core 2B is disposed between an inner peripheral surface 20A of the coating crimping portion 50 and an outer peripheral surface 2A of the insulation coating 2C. The coating crimping portion 50 is provided with an oblique extending portion 70 for reducing the outflow of the water cut-off member 60 to outside due to crimping.