Provided is a waterproof structure for a multicore wire capable of enhancing waterproofness. The waterproof structure includes a multicore wire in which a plurality of core wires are housed in a sheath, a housing in which is housed a terminal fitting connected to a terminal portion of the core wires, and in which is formed an opening through which the core wires are externally extracted, a molded part covering the opening and covering an end face of the sheath, and a resin stopper part disposed on an inner side of the molded part inside the opening.

A shielded electrical cable includes conductor sets extending along a length of the cable and spaced apart from each other along a width of the cable. First and second shielding films are disposed on opposite sides of the cable and include cover portions and pinched portions arranged such that, in transverse cross section, the cover portions of the films in combination substantially surround each conductor set. An adhesive layer bonds the shielding films together in the pinched portions of the cable. A transverse bending of the cable at a cable location of no more than 180 degrees over an inner radius of at most 2 mm causes a cable impedance of the selected insulated conductor proximate the cable location to vary by no more than 2 percent from an initial cable impedance measured at the cable location in an unbent configuration.

An electrical component has an electrical cable and an electrical functional unit undetachably connected at an end side. The electrical cable has a metallic conductor and a plastic insulating sleeve surrounding the conductor. The electrical functional unit has an insulator housing injection-molded onto the plastic insulating sleeve, and an electrical functional element accommodated in the insulator housing and with which contact is made by the conductor. The plastic insulating sleeve is in a ring zone covered by the insulator housing, structured on its outer surface in an encircling manner by laser processing with a groove pattern and raised portions between the grooves. The insulator housing has a pattern formed during injection-molding by the groove pattern of the insulating sleeve, having webs which enter grooves and are anchored such that the insulator housing and insulating sleeve are permanently sealed from one another in respect of liquid media in the ring zone.

This invention is an active cable or cables with a female micro USB or other connector recessed at the rear end of the HDMI plug for connecting external power when needed. The recessed connector is connected to an internal circuitry that combines this external power with the power from the source or sink device via a straight or “OR” circuits. This design is clean when no external power is needed because there're no dangling pigtails with USB plugs. When external power is needed because the source or sink devices can't provide enough current, the user can use for example widely available male micro USB to male USB cable (the standard charging cable for most Android phones and many other computer or phone accessories) or other cable to get external power, and the cable length can be selected to fit the application.

A method for producing a multi-core cable includes arranging first and second contact elements in a contact carrier having first and second longitudinal channels connecting a contacting side to a cable side, and first and second through-openings respectively crossing the first and second longitudinal channels, and a second through-opening crossing the second longitudinal channel. The first and second longitudinal channels and the first and second through-openings are sealed in a fluid-tight manner by inserting two first sealing pieces into the first through-opening and two second sealing pieces into the second through-opening. In an injection-molding method, a connecting piece is formed connecting the contact carrier to the outer sheath of the cable by overmolding at least a rear section of the contact carrier comprising the first and second through-openings and a section of the cable protruding on the cable side.

An electrical connector body is provided includes first and second housing portions formed from molded plastic. The housing portions include first and second interface surfaces that are configured to butt against one another to define a housing and one or more electrical components are disposed within an interior of the housing. The one or more electrical components may comprise connectors of a male or female cord cap, an in-line surge suppression circuit, and/or a compact automatic transfer switch. In one implementation, each of the first and second connector body portions may include a strain relief extension for engaging an electrical cord and a compression member (3691) may be disposed over the strain relief extensions to secure together the first and second connector body portions. The compression member may be selected from a set of compression members based on a size of the electrical cord.

A power extension cord comprises a body, a cavity extending completely through the body, and a gap disposed along a perimeter of the body that extends through to the cavity, such that the cavity is accessible from the exterior of the receptacle head through the gap. One or more receptacles are disposed along the exterior of the body. Preferably, a gate may be provided, the gate having an open position in which the cavity is accessible through the gap and a closed position in which the gate blocks the gap and restricts access to cavity.

A pluggable module includes an outer housing having a cavity between an upper wall and a lower wall. A circuit card is received in the cavity having a card edge configured to be received in a card slot of a communication connector. A circuit card holder engages the circuit card and holds the circuit card in the cavity of the outer housing. The circuit card holder includes a locating fin at a top of the circuit card holder. The locating fin has a sacrificial upper edge configured to engage the outer housing to locate the circuit card holder and the circuit card in the cavity. The sacrificial upper edge is deformed when engaging the outer housing to press the circuit card holder and the circuit card in a downward biasing direction.

A power extension cord comprises a body, a cavity extending completely through the body, and a gap disposed along a perimeter of the body that extends through to the cavity, such that the cavity is accessible from the exterior of the receptacle head through the gap. One or more receptacles are disposed along the exterior of the body. Preferably, a gate may be provided, the gate having an open position in which the cavity is accessible through the gap and a closed position in which the gate blocks the gap and restricts access to cavity.

The present disclosure provides a cable connector assembly that includes a cable having conductors secured to contact pads formed on a printed circuit board. A housing and cover are configured to be secured together and combine to form a cavity for receiving the printed circuit board and the cable. A slug is formed around a portion of the cable. Upon assembly of the cover to the housing, the slug is disposed in a pocket formed in the cavity and helps secure the cable to the housing and cover.