Embodiments of the present invention provide a method, anti-static bag, and kit for transporting an electronic component in the anti-static bag. Along with the electronic component, a desiccant and a temperature indicator are added to the anti-static bag. The anti-static bag is then vacuum sealed to reduce the air and moisture in the anti-static bag. The vacuum sealed bag, desiccant, and temperature indicator, insure that the formation of condensation on the electronic component will be minimized, which will potentially prolong the life of the electronic component.

The present disclosure provides a power module and a solid-state transformer system. The power module includes: a circuit module, having a voltage level; and a cabin, configured to wrap the circuit module by bending or splicing, where the cabin has a shielding structure, the shielding structure including: a first conductor layer, located at a side close to the circuit module and equipotentially connected to the circuit module; a second conductor layer, arranged apart from the first conductor layer and located at a side away from the circuit module; and a solid insulating layer, provided between the first conductor layer and the second conductor layer for electrically isolating the first conductor layer and the second conductor layer. The power module provided by the present disclosure has good insulation performance and is easy to assemble.

A footwear, including a wearable assembly to be worn on at least a portion of at least one of a foot and a leg of a user, and at least one storage compartment disposed on at least a portion of the wearable assembly to store at least one item therein.

An electromagnetic tracking system includes a magnetic transmitter configured to output magnetic fields, a receiver responsive to the magnetic fields, an electronics assembly having conductive elements that cause distortion to the magnetic fields, and an output mechanism configured to output a position of the receiver relative to the magnetic transmitter, wherein the magnetic transmitter has at least one winding disposed around a hollow ferromagnetic core comprised of conductive material through which current is made to flow by the electronics, wherein the electronics assembly is at least partially contained within the hollow portion of the hollow ferromagnetic core. Methods of manufacturing include shaping walls into a hollow shell to surround an electronics assembly, covering the hollow shell with ferromagnetic material, inserting the wrapped hollow shell into a plastic bobbin, and winding the plastic bobbin with coil wire to produce three orthogonal windings.

A Faraday enclosure apparatus and method for manufacturing same are disclosure. The enclosure may comprise one or more sewn seam portions constructed to prevent signal leakage through stitch apertures in the seam. A vestibule section facilitates signal-shielded movement of electronic devices between the ambient environment and the main cavity of the enclosure. A connector filter may be mounted to extend through a wall of the enclosure to manage wired power and signal communications entering and exiting the main cavity of the enclosure. Foldable side walls facilitate the collapsibility of the enclosure for compact transport and storage.

Embodiments of the present invention relate to electromagnetic interference (EMI) shielding structures. Rectangular EMI shielding panels are formed that include a first and second ends. A pair of rectangular EMI shielding panels are affixed orthogonal to each other at their first ends. The pair of rectangular EMI shielding panels are successively overlapped with each other to thereby form a plurality of interconnected EMI shielding planes. The pair of rectangular EMI shielding panels are affixed to each other at their second ends to form a helical EMI shielding structure that unfolds to an unfolded state and folds to a folded state along its center axis. Here, the plurality of interconnected EMI shielding planes are each angularly offset from each other about the center axis to form a helical structure when in the unfolded state. The EMI shielding panels include an encapsulating layer and/or metallic layer.

An exemplary electromagnetic shielded dry bag with magnetic closure system includes an outer bag, an inner shielding liner, and a pair of embedding strips having magnets embedded therein. The outer bag is preferably comprised of water-proof material and has a fluid-sealed floor portion and an access mouth disposed oppositely thereof. First and second bag panels are disposed oppositely of one another and extend from the floor portion to the access mouth. The inner shielding liner is comprised of electromagnetic shielding material and defines an electromagnetic shielding compartment within the bag. The embedding strips are secured to respective bag panels. This securement may be by way of heat fusing of respective securement elements to the inner faces, thereby forming pockets with which the strips reside. When the closure section is magnetically retained in closed configuration, the access mouth is thereby retained in an RF-sealed and fluid-sealed configuration to protect the shielding compartment.

A wire harness, including: a plurality of wire groups, each including a plurality of wires; a tube made of metal into which the wire groups are inserted; and a plurality of flexible shields with a tube shape that each enclose one of the wire groups, wherein connectors provided at ends of the flexible shields are each connected to a portion of an outer circumferential surface of the tube in a circumferential direction of the tube.

A housing component for a mobile terminal such as a smartphone or a laptop computer, includes a carbon fiber reinforced plastic body that is operative to shield components within the housing from electromagnetic radiation. The housing component further includes at least one antenna window. The at least one antenna window is configured to be associated with at least one antenna of the terminal. The at least one antenna window enables the at least one antenna to transmit and receive electromagnetic signals without being shielded or interfering with the operation of the terminal circuitry within the housing.

A wearable EL product electromagnetic wave shield structure includes a light emitting unit, an electric wire member extending from the light emitting unit, and an inverter for controlling power on/off and operation of the light emitting unit, and is washable and flexible to be applicable to all items that can be worn by humans. The light emitting unit includes an EL member applied with a fluorescent material according to a certain shape or pattern, an insulator respectively disposed on the EL member front and rear surfaces, a front electrode member disposed on the opposite side of the front side insulator from the EL member to shield electromagnetic waves emitted from the EL member, a rear electrode member disposed on the opposite side of the rear side insulator from the EL member to shield electromagnetic waves emitted from the EL member, and a base member for supporting the front electrode member.