A secure access kiosk includes a plurality of walls interconnected to form an interior area within the secure access kiosk, a soundproofing element fixed at each wall of the plurality of walls, an electromagnetic shielding element fixed at each wall of the plurality of walls, and an information processing system security container within the interior area of the secure access kiosk. The information processing system security container houses at least one of a thin client or an ultra-thin client, and the thin client or the ultra-thin client is configured to provide a software interface and to prevent data storage or encryption to be stored at the thin client or ultra-thin client. The thin client or the ultra-thin client can include an integrated classified network interface within the interior area of the secure access kiosk.

A shelter with electromagnetic interference (EMI) protection includes first and second wall panels including EMI protection. The panels are connected by at least one of: (i) a hinged connection; (ii) a scissor joint connection. The hinged connection includes an EMI protected hinge that extends between the first and second panels and includes a first hinge leaf, a second hinge leaf, and a hinge joint. A flexible EMI protection covering extends across the hinge joint. The scissor joint connection includes a first hook connected to the first panel and a second hook connected to the second panel and an EMI gasket is located in an open channel of the first hook. Part of the first hook is received in a second open channel of the second hook and part of the second hook is received in the first open channel of the first hook and the gasket is compressed.

The present invention relates generally to the field of faraday cages. More specifically, the present invention relates to a carport tent faraday cage device. The device includes a tent body, at least one roof frame, at least one wall frame, and at least one door. The tent body includes three layers, namely an exterior layer, a middle layer, and an interior layer. Further, the tent body material has a middle layer that includes a woven copper wire to prevent the electromagnetic radiation from entering the device. A grounding stake and a tether are also included to direct the electrical current away from the device and into the ground. The device provides users with a device to store their vehicles, or other electronic devices without the risk of damage by electromagnetic radiation.

A wind turbine including a plurality of elements including a tower, a nacelle mounted to the tower and a plurality of blades rotatable mounted to the nacelle is provided. At least one element of the tower, the nacelle and the blades includes a coaxial impedance member coaxially arranged about an axis of the element.

A system for at least partially preventing passage an intrusive electromagnetic field into an internal volume of a structure is provided. The system includes a plurality of shielding modules positionable adjacent one another on an exterior surface of the structure for covering at least a portion of the exterior surface. Each of the shielding modules including a sensor and a shielding coil positioned around the sensor. The sensor is configured to measure the intrusive electromagnetic field and generate a signal based on the measured field. The system further includes a control unit in communication with each of the shielding modules, the control unit controls supply of response currents to the coil based on the signal such that the coil radiates a counteracting electromagnetic field that at least partially prevents passage of the intrusive field into the internal volume of the structure.

The electromagnetic shielding of an enclosable building structure is provided by applying a shielding wallcovering to at least a portion of building structure. The shielding wall covering is wallpaper comprising a metal-coated substrate core and resin. To connect the shielded wallpaper to the building structure a layer of the resin or an adhesive layer may be used.

An external electromagnetic shielding device is provided. The external electromagnetic shielding device includes a bottom shield, a conductive cover being in a grid-like shape and arranged above the bottom shield, and a rolling module. The conductive cover includes a top shield spaced apart from the bottom shield, a lateral shield connected to the top shield, and a plurality of supports that are fixed to the lateral shield. The supports include a bottom support in an annular arrangement, and any two of the supports are spaced apart from each other. The rolling module includes a rolling unit and a linkage unit that is connected to the rolling unit and the bottom support. When the linkage unit is coiled on or released from the rolling unit, the bottom support can be moved to allow the lateral shield to fold or unfold between the bottom shield and the top shield.

A method according to one embodiment includes securing a first plurality of conductive sheets to a surface, applying a conductive tape to a first plurality of joints between conductive sheets of the first plurality of conductive sheets, and securing a second plurality of conductive sheets to the first plurality of conductive sheets without fully penetrating the first plurality of conductive sheets. In such an embodiment, each of a second plurality of joints between conductive sheets of the second plurality of conductive sheets is offset relative to the first plurality of joints.

A lightweight transportable containerized shelter includes wall panels made of a non-metal composite material coated at least on its inner face with a metal layer for EMI protection. The several wall panels are secured to a metal structural frame without the use of fasteners so as to define a containerized transportable shelter. The shelter meets ISO standards 668 and 1496. The shelter provides a continuous barrier to electromagnetic signals. Moreover, the containerized shelter is amenable to nine high stacking as required for ISO certification.

A wind turbine including a plurality of elements including a tower, a nacelle mounted to the tower and a plurality of blades rotatable mounted to the nacelle is provided. At least one element of the tower, the nacelle and the blades includes a coaxial impedance member coaxially arranged about an axis of the element.