A medical imaging device connector assembly for connecting a medical imaging device to a terminal of a medical imaging system is provided. The medical imaging device connector assembly includes a top housing having a first base cutout; a bottom housing configured to couple to the top housing, the bottom housing including a second base cutout; a base housing positioned within the first and second base cutouts; a plurality of printed circuit boards (PCBs) disposed between the top housing and the bottom housing; an electrical connector positioned within the base housing; and an elastic seal member surrounding a circumference of the base housing. When the top housing is coupled to the bottom housing, the elastic seal member is compressed by the plurality of PCBs in a first direction and by the top and bottom housings in a second direction perpendicular to the first direction to prevent fluid ingress.

A power connection assembly includes a housing, a plug, and a first and a second conductive member. The housing has a first opening. The plug is disposed in the housing, and includes a first rotating base, and a first and a second electrode terminal. The first rotating base is movably fitted into the first opening. The first and the second electrode terminal penetrate through the first rotating base to form a first and a second contact portion. The first conductive member includes a first clamping portion that includes two second elastic sheets. Each second elastic sheet has a first and a second elastic segment. The first elastic segment is L-shaped, and the second elastic segment is cylindrical. The second elastic segments of the two second elastic sheets are configured to clamp the first electrode terminal, so that the first electrode terminal electrically contacts the first conductive member.

An AC electroluminescent power cord includes at least two electrode wires and a luminescent layer. The electrode wire is coated with the luminescent layer; the transparent or translucent plastic layer is coated on an outer wall of the luminescent layer; and each of the at least one electrode wire includes at least one metal wire; the at least two electrode wires are insulated with each other. When the electrode wires are conducted with an AC power source, the luminescent layer emits light. The AC electroluminescent power cord of the disclosure not only has a simple and reliable structure, but also has a display function. When applied for various electronic devices, the AC electroluminescent power cord of the disclosure integrally emits light or sequentially emits light in sections to simulate and display the current flow.

The present disclosure provides a socket structure including a casing, a main body, a frame and a cover. The casing includes plural lateral walls, a bottom, an opening and an accommodation space. The opening is defined by the lateral walls. The accommodation space is defined by the lateral walls and the bottom and is in communication with the opening. The main body is disposed in the accommodation space and includes a circuit board and a connection port disposed on the circuit board. The frame includes at least one plate and a first extending portion. The plate surrounds the periphery of the opening. The first extending portion is extended from the plate and is connected to one of the lateral walls. The cover covers the opening and includes a through hole. The through hole is configured to allow a plug to pass through and connect to the connection port.

A power adapter arrangement configured to provide power to a load is described. The power adapter arrangement may comprise a power adapter having a first interface comprising a first plurality of contact elements, and a second interface comprising a switch configured to control power applied to a load; and a control attachment removably coupled to the power adapter, wherein the control attachment comprises an actuator element configured to make contact with the power adapter in response to a manual actuation of the control attachment; wherein the power adapter further comprises a power control circuit configured to receive the power and provide the power to the load in response to a detection of a manual actuation of the toggle element.

A detection device adapted to a connector is provided herein. The connecter includes a first pin and a second pin, and the first pin and the second pin are physically separated and coupled to a first power respectively. The detection device includes a first transistor, a first resistor, a second transistor, and a bias circuit. The first transistor is coupled between the first pin and the first power. The first resistor is coupled between a gate terminal of the first transistor and the first power. A detection signal is generated at the gate terminal of the first transistor. The second transistor is coupled between the gate terminal of the first transistor and a second power. The bias circuit is coupled between a gate terminal of the second transistor and the first pin.

A module may include a connector configured to electrically couple with a communications port of an information handling system, the connector comprising a plurality of electrical conduits, a housing configured to house the connector and shaped to mechanically engage with the communications port, and a visual indicator communicatively coupled to the plurality of electrical conduits and configured to visually indicate information associated with the communications port when the connector is communicatively coupled to the communications port.

A power connector includes a first printed circuit board (PCB) to connect to a plurality of power cables and receive power from the plurality of power cables. The power connector also includes a plug, which is electrically connected to the first PCB, to connect to a graphics card and provide the power to the graphics card. The power connector may further include a second PCB electrically connected between the first PCB and the plug, a casing to house the first PCB and/or the second PCB, and/or light-emitting diodes (LEDs) to be illuminated during operation of the graphics card.

A plug connector includes a housing, a built-in circuit board partially located in the housing, and a cable electrically connected to the built-in circuit board. The housing includes a mating surface. The built-in circuit board includes a tongue plate and a number of conductive pads provided on the tongue plate. The housing includes an extension plate extending along a mating direction of the plug connector. The tongue plate and the extension plate protrude beyond the mating surface along the mating direction. The extension plate further protrudes beyond the tongue plate along the mating direction. Two lateral sides of the plug connector also respectively include slots extending through the mating surface. As a result, the insertion reliability of the plug connector of the present disclosure is improved.

A vehicular electrical plug or connector is provided. In another aspect, an electrical connector includes a wire cable having a first end that is permanently connected to a wheeled recreational vehicle, a second end with an outlet-engageable plug thereon, and a switch allowing for a high potential or dielectric withstand test by the vehicle manufacturer in one switch condition, and then the switch allowing for normal use while detecting and/or alerting a user of an electrical ground and/or polarity problem in another switch condition. A further aspect of an electrical connector employs multiple lights on a plug, one of which alerts a user of an electrical ground and/or polarity problem, and another of which is illuminated when electricity is flowing through the plug. Another aspect of a vehicular electrical plug and method of manufacturing same, includes liquid polyurethane fed into a hole in a plug housing which then fills the otherwise open area therein to create a water-resistant seal for the plug.