Abstract: A testing system capable of shielding from environment noise uses a foldable electromagnetic shielding box to isolate devices that will produce electromagnetic interference to a test object, so as to reduce the influence of these devices on the measurement of the test object. In an embodiment, measuring equipment and the test object are disposed in the foldable electromagnetic shielding box for being shielded from outside electromagnetic waves. In another embodiment, the measuring equipment is disposed in the foldable electromagnetic shielding box while the test object is disposed outside the foldable electromagnetic shielding box, so that the test object to be tested is shielded from electromagnetic waves from the measuring equipment. The foldable electromagnetic shielding box can be folded into a stack for convenience of storage or transport.

Abstract: The present disclosure relates to a self-wrap electromagnetic wave shield tube and a braid member, which are capable of improving workability of cable connection or cable shielding work and minimizing weight and costs while securing sufficient electromagnetic wave shielding performance in an electrical component space of a vehicle.

Abstract: Transportable and rapidly deployable air supported structure systems and related methods are disclosed. The air supported structure systems include at least one transportable container. The systems also include a flexible outer membrane configured to couple to a base in a substantially air-tight manner. The systems further include at least one air handling mechanism contained within the at least one container configured to force air between the outer membrane and the base to form an enclosure therebetween via internal air pressure. The systems are configurable between a packaged state with the outer membrane contained within the at least one container, and a deployed state with the outer membrane being coupled to the base and the at least one air handling mechanism forming the enclosure via the internal air pressure. The at least one container may form a portion of the base and/or provide for ingress and egress with the enclosure.

Abstract: A protective housing for shielding an individual against electro-magnetic field (EMF) radiation includes a conductive mesh configured to be suspended from an elevated position, a conductive plane at a base of the protective housing and configured to be a grounding plane for the protective housing, the conductive plane and conductive mesh being configured to shield an interior space, defined by the conductive plane and conductive mesh when suspended, against EMF radiation, and a cable coupled to a circumference of the conductive mesh and configured to weigh down the conductive mesh and to electrically couple the conductive mesh to the conductive plane.

Abstract: A hardware shield device and an electronic device are provided. The device and electronic device include a shield can including an opening through which at least a part of a device element is exposed, a heat dissipation module including at least a part that is mounted on the opening, a cover member connected to one surface of the heat dissipation module, and a conductor arranged between the shield can and the cover member, the conductor surrounding both the opening and at least a part of a periphery of the heat dissipation module.

Abstract: A shielding device for surrounding and shielding an electronic element therein on a circuit board, comprising a unitary metallic frame for mounting on the circuit board defining a receiving space confronted with the circuit board; and a unitary metallic cover assembled with the frame so as to provide a complete shielding performance with the frame; wherein the cover pivots on the frame and moves between an opened state where the cover rotates away from the frame and a closed state where the cover is wholly covering on the frame.

Abstract: According to various embodiments, there may be provided an electronic device including a Printed Circuit Board (PCB), at least one electronic component mounted in a shielding area of the PCB, and a shield cover formed of a metal material and fixed to an upper surface of the PCB to shield the shielding area. The shield cover may include an upper surface including a first plate and a second plate configured to be extended along a boundary of the first plate, a lateral surface which is configured to have a constant height along a boundary of the second plate, and an open portion configured to be exposed to up to one area of the first plate through the second plate from the lateral surface. An exposed area of the first plate may be exposed to a notch-shaped space configured to be more inwardly recessed than a virtual extension line of an outer boundary of the second plate in the open portion. Other various embodiments may also be possible.

Abstract: An electronic device such as a set top box is provided having a vertical chassis wall having an aperture; a horizontal circuit board that extends toward the vertical chassis wall; F-connector connected to the horizontal circuit board, either under or over the board, and extending out of the a vertical chassis wall through the aperture; and inner shield, which can generally be used to contain/shield the RF circuit components mounted on the PCB, on the interior side of the vertical chassis wall and connected to the F-connector on or under the horizontal circuit board, wherein the inner shield comprises a series of vertical peripheral walls that surround components (either under or over the board); and a shield cover that covers the inner shield, the shield cover comprises a top portion that runs along or extends horizontally and side portions that extend from the periphery of the top portion and downward to overlap a part of the shield wall.

Abstract: A method for deploying a lightweight, flexible Faraday cage around a device can include the step of directing the conductive fluid flow in a manner that causes a shroud to form over the device. In some embodiments, a flexible material such as canvas can be deployed over the device and the conductive fluid can be sprayed onto the flexible material to form the shroud. In other embodiments, a plurality of nozzles can be placed around the perimeter of the device, and the nozzles can be directed at a predetermined point over the device. The streams can meet at the predetermined point, collide and thereby provide the conductive shroud for the device. The shroud can have a thickness, which can be chosen according to the desired frequency of electromagnetic radiation to be blocked, typically from one to one hundred millimeters (1-100 mm).

Abstract: A self-wrapping, textile sleeve for routing and protecting elongate members from electromagnetic interference and a method of construction thereof is provided. The sleeve has an elongate wall constructed from interlaced yarns. At least one of the yarns is provided as heat-settable polymeric yarn that is heat-set to bias the wall into a self-wrapping configuration about a longitudinal central axis of the sleeve to bring opposite edges into overlapping relation with one another to provide a generally tubular cavity in which the elongate members are received. Further, at least one of the yarns is provided as a bi-component metallic wire having an aluminum core and an outer layer of copper.

Abstract: An electrical connector is disclosed to include an electrically insulative housing, which houses a plurality of metal contact pins, each metal contact pin having a bottom bonding face protruding over the bottom side of the housing, a metal shield, which is coupled to the housing and has two bonding portions at two sides, and a bonding adjustment architecture provided between the metal shield and the housing for allowing vertical movement of the metal shield relative to the housing to adjust the elevation of the bonding portions so that the bonding portions and the bonding face of each metal contact pin can be positively bonded to a circuit board by SMT.

Abstract: An electromagnetic interference shielding structure includes a shielding housing to enclose an electronic component and reduce electromagnetic interference. Two tearable line-grooves are separately formed at a top surface of the shielding housing, and two long slots and two recesses are formed at two rounded portions of two sides of the shielding housing. A cover plate is movably formed between the two tearable line-grooves and the two long slots. The cover plate is removable from the shielding housing during maintenance, and a cover lid is used to restore the shielding housing. The cover lid has a top surface being as high as the top surface of the shielding housing. There is no height difference to meet the requirement of modern communication product about slim and light-weighted.