A three-dimensional (3D) printed electrical connector includes an insert component, at least a first sealing member, and a shell. The insert component includes a body adapted for 3D printing. The body has first and second ends and includes a cavity penetrating the body along a longitudinal axis of the body. The first sealing member is associated with the insert component and is adapted for 3D printing. The shell at least partially encloses the insert component.

Electrical assembly, comprising: —a base part (20), and —a removable part (10) configured to be fixed in a removable manner on the base part (20), the base part (20) comprising: —a flexible membrane (22) delimiting, at least in part, a leaktight internal volume (24), —at least one movable electrically conducting element (25), carried by the membrane (22), and extending, at least in part, in the internal volume (24), and —at least one internal electrical contact (28) disposed in the internal volume (24) under the movable conducting element (25), the movable conducting element (25) contacting, during a deformation of the membrane related to the assembly of the removable part (10) on the base part (20), the internal electrical contact (28) for the establishment of an electrical connection between them, and being distant from the internal electrical contact in the absence of fixing of the removable part on the base part.

An electrical connector system includes a plug connector and a receptacle connector each of which having a plurality of terminal receiving cavities for receiving a plurality of terminal lead wires. The plug connector having a perimeter seal for creating a waterproof barrier between the plug connector and the receptacle connector. The receptacle connector including at least one bridging portion having a surface for guiding and aligning the seal when the plug and receptacle connectors are mated together.

A plug connector has a cylindrical housing body having at least one step, which forms two different regions each having different housing diameters, wherein the region having the smaller diameter is designed as a plug-in region and the region having the larger diameter is designed as a socket region, wherein the plug connector has a lock, which is captively connected to the housing body, wherein the plug connector has an actuator, which is operatively connected to the lock, wherein the plug connector has a plugging positioner, which at least partially surrounds the plug-in region. An attachment flange fits the plug connector and has an insertion region designed as a hollow cylinder, wherein the inner region of the hollow cylinder has at least one step, which forms two different regions each having different inside diameters, wherein the inner region of the insertion region is unthreaded.

A pulse generator comprises a header connector assembly coupled with a housing. The header connector assembly includes a connector assembly and a header enclosing the connector assembly. The connector assembly includes an electrically insulative segment, a first electrically conductive segment, and a second electrically conductive segment axially spaced apart from the first electrically conductive segment by the electrically insulative segment. Each electrically conductive segment includes a connector ring, a spring housing and a spring supported by the spring housing. The connector ring and spring housing are in electrical communication with each other. The electrically insulative segment includes an insulator ring that is positioned between the first and second electrically conductive segments. The insulator ring includes a first end and a second end axially opposite the first end. The first end includes a first recess that opens axially and receives therein a portion of the first electrically conductive segment.

A flushing arrangement for flushing a surface of a wet-mateable connector for subsea use is provided. The flushing arrangement has a cartridge adapted to form a chamber around the surface to be flushed prior to flushing. The cartridge has a sealing portion adapted to be sealed against a part of the connector. An inlet port for receiving a fluid from a fluid source and an outlet port for discharging a fluid are provided. Plural flow channels are formed in the cartridge, the plural flow channels comprising flow channels providing a fluid connection between the inlet port and the chamber for enabling a flow of fluid into the chamber and flow channels providing a fluid connection between the chamber and the outlet port for enabling a flow of medium out of the chamber.

This disclosure presents a connector assembly for providing a waterproof connection to a case for an electronic device. The connector assembly includes a connector body, an electrical cable, and an electrical conductor. The electrical conductor is electrically connected to the electrical cable and electrically engages the installed electronic device to convey at least one of data and power between the installed electronic device and the electrical cable. The connector assembly also includes an outer sleeve configured to freely rotate around the connector body and further configured to removably connect the connector assembly to the case. The outer sleeve includes a securing region to removably secure the connector assembly to the case, an inner gasket to seal an inner sealing interface of the outer sleeve with the connector body, and an outer gasket positioned to seal an outer sealing interface of the outer sleeve with the case.

Provided is a wall bushing for establishing contact between a plug connector and a housing wall or the like. The wall bushing can be placed and fastened over an opening by three fastening bores. Advantageous arrangement of the three fastening bores ensures that the wall bushing is fitted on the housing in a particularly safe and stable manner. The special shaping of the wall bushing additionally allows a high mounting density of a large number of wall bushings in a small area.

The present invention relates to an electrical connector including a first connector housing with a wall arranged substantially perpendicular to the connecting axis. The wall has an opening for insertion of a second connector housing. A first collar extends from the wall concentrically around the opening. A second collar extends from the wall concentrically around the first collar. The first collar and the second collar are spaced apart. A sleeve-shaped coding element is attached with a first end to the free end of the first collar. The first collar and the sleeve-shaped coding element are arranged concentrically around the opening. A sealing element is arranged in a sealing area between the first collar and the second collar. The sleeve-shaped coding element includes a supporting feature at its first end which is suitable for holding the sealing element in its position.

A holder apparatus of a bio-signal device comprises a holder, which comprises a pocket for a bio-signal processing device, an extension with a hollow, the hollow and the pocket forming a continuous cavity through the holder, a connector, and an elastic seal with a hole. A shape of the elastic seal is matched with a shape of the hollow of the extension at an interface of the pocket, and the hollow and a shape of the hole is matched with a shape of the connector for sealing an interface between the connector and the holder while the connector and the elastic seal are within the hollow and the connector is in contact with the elastic seal. Sealant filler fills the hollow of the extension and is in physical contact with the connector, which is in the hollow against the seal, the elastic seal and the sealant filler allowing the connector to mate electrically with a counter-connector moved within the cavity in a direction from the pocket toward the hollow.