A magnetic device having a first coil and a second coil, wherein the first coil is wound in a first direction when viewed from the first terminal part of the first coil, and the second coil is wound in a second direction when viewed from the third terminal part of the second coil, wherein the first direction and the second direction are opposite to each other for canceling magnetic fluxes generated by the first coil and the second coil.

Example embodiments relate to power cords for electrically connecting one or more devices to an electrical source. A power cord may include a first end configured to couple to an electrical source and a second end configured to electrically couple to a device. A ground fault circuit interrupter (GFCI) may be coupled to the power cord between the first end and the second end such that the GFCI is configured to control a flow of electricity through the power cord to the device when the second end of the power cord is electrically coupled to the device. The GFCI may include a set of light emitting diodes (LEDs) with a first LED configured to illuminate when the GFCI is preventing the flow of electricity, and wherein a second LED is configured to illuminate when an output side of the GFCI is outputting electricity.

A wiring harness testing assembly for testing a wiring harness for wiring faults includes a puck that is positionable on a female coupler of a wiring harness on a semi-truck and the puck is foraminous. A plurality of testing lights is provided and each of the testing lights has a contact that is insertable through a respective foramen in the puck to electrically engage the female coupler of the wiring harness when the puck is positioned on the female coupler. Furthermore, respective ones of the testing lights are turned on when the contact on the respective testing light completes a circuit with a respective wire on the wiring harness thereby facilitating the respective wire to be tested for continuity.

Embodiments herein describe preventing a pluggable module from connecting to a chassis until ensuring there is no damage on the pluggable module, the chassis, or both. In one embodiment, the chassis includes a blocking element that prevents or blocks the pluggable module from mating with the chassis. The chassis can also include a camera for capturing an image of the pluggable module to determine whether there is damage to its connection elements (e.g., pins). If not, the chassis can release the locking pin to permit the pluggable module to mate with connection elements on the chassis.

A powered wall plate with a plug-in module having an electrical plug and an module cover. The electrical plug has at least two electrical prongs that are configured to removably mate with an electrical receptacle. The module cover is located adjacent to the electrical plug and has a surround configured to extend around a portion of the perimeter of the wall plate, an LED light located along a bottom edge of the module cover, a USB port exposed on a surface of the module cover, and a circuit contained within the module cover and configured to supply power to the USB port and the LED light when power is supplied to the electrical prongs. The wall plate has a first mounting screw aperture and the plug-in module has a second mounting screw aperture that receive a mounting screw, attaching the plug-in module to the wall plate and the electrical device.

A powered wall plate comprising a wall plate, at least two electrical plug prongs, an electrical circuit, and an electrical feature. The wall plate has a front surface opposite a rear surface and at least one opening sized to expose a first electrical receptacle of an electrical device. The at least two electrical plug prongs originate within the wall plate and extend rearward from the rear surface, and are configured to removably mate with a second electrical receptacle of the electrical device. The electrical circuit is located between the front surface and the rear surface. The electrical feature is exposed on the wall plate and is configured to receive power from the at least two electrical plug prongs through the electrical circuit. The wall plate may have a profile with a first thickness and a second thickness. The second thickness may be less than three times the first thickness.

A coverless AC power outlet for use in a vehicle interior has a pivotable faceplate that covers or exposes power terminals for receiving prongs of an AC power plug. Internal terminals of the outlet are packaged in a cylinder which is interchangeable between a plurality of plug styles used in different regions of the world. Surrounding the faceplate, a ring of light indicates status of activated or nonactivated terminals.

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.

Various implementations and configurations of a user configurable electric power distribution apparatus are possible and may comprise: an electrical input unit comprising an electrical plug, wherein the input unit may be pluggable into an existing electrical outlet and may conceal the electrical outlet; an electrical output unit comprising one or more electrical receptacles, wherein the output unit and the input unit are not conjoined, the output unit can be located on a surface when the input unit is plugged into an electrical outlet, and the output unit can be separated by a distance from the input unit; an electrical interconnect, which may be modular, attached to both the input unit and the output unit, wherein electrical power received by the electrical plug may be available at an electrical receptacle comprised by the output unit; an optional ground fault circuit interrupter (GFCI); and an optional one or more USB power ports.

An illuminable electronic connector for facilitating connection with an electronic device has an illumination circuit with at least one illumination source, and an on-board power source for supplying power to the illumination source in at least some modes of operation. The connector may be configured to adjust brightness of the illumination source based on ambient light conditions using an on-board light sensor. A touch sensing input may also be provided to operate the illumination source. The connector may be further operable to enter a sleep mode when it enters a shipping phase of a supply chain and then to automatically activate the illumination source when it is unpackaged at the end of the shipping phase. An electronic device including an electronic visual interface, such as a mobile phone, may be also operated in a similar manner based on the phase of the device within a supply chain.