Abstract: A flexible electronics assembly including a substrate including one or more dielectrics. A cavity is formed within the substrate. A first ground plane is secured to the substrate. One or more stress channels are formed through one or more portions of the substrate and the first ground plane. An electronics component is disposed within the cavity.

Abstract: A Faraday enclosure apparatus may include 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.

Abstract: A privacy protection module applied to an electronic device is disclosed. The electronic device includes a camera module which has a circuit board and a lens. The lens is connected to the circuit board. The privacy protection module includes a case, a hole, a shutter and an actuator. The case covers the camera module. The hole is located on the case and aligned with the lens. The actuator is located on the case and electrically connected to the circuit board; the actuator moves along a first direction or a second direction when the actuator is driven by electronic power. The shutter is next to the hole and connected to the actuator.

Abstract: A method for producing a housing having shielding against electric and/or magnetic radiation is provided, in which an electrically and/or magnetically conductive foil is formed into a shape corresponding to and inner or an outer wall of a housing made of an electrically and/or magnetically non-conductive material, and the foil is arranged on the inner or outer wall of the housing. The foil shape may be formed separate from the foils application to the inner or outer wall of the housing, or may be shaped in conjunction with the forming of the non-conductive housing.

Abstract: An accessory device suitable for use with an electronic device is disclosed and may be designed to provide a protective cover and dissipate heat from the device. Regarding the latter, the accessory device may include a thermally conductive layer disposed in the accessory device. The thermally conductive layer may extend from a first end of the accessory device proximate to a heat-generating component in the electronic device, to a second end away from the heat-generating component. The thermally conductive layer is designed to navigate heat away from the heat-generating component to the second end where the heat escapes the accessory device. The second end may include one or more openings to facilitate heat transfer from the accessory device. In other embodiments, the accessory device includes a phase change material that absorbs heat and changes to a liquid, then passes the heat to another location in the accessory device.

Abstract: A capacitor assembly is disclosed. The capacitor assembly includes a housing. The capacitor assembly further includes a plurality of capacitors disposed within the housing. Furthermore, the capacitor assembly includes a thermally conductive article disposed about at least a portion of a capacitor body of the capacitors, and in thermal contact with the capacitor body. Moreover, the capacitor assembly also includes a heat sink disposed within the housing and in thermal contact with at least a portion of the housing and the thermally conductive article such that the heat sink is configured to remove heat from the capacitor in a radial direction of the capacitor assembly. Further, a method of forming the capacitor assembly is also presented.

Abstract: An inflatable, lightweight shielded enclosure that includes one or more inflatable, lightweight shielded beams arranged to support a shielded material, and an inflatable, lightweight shielded connection system for connection to a control system is provided along with related methods. The enclosure may have a weight of approximately twenty-one pounds, and provide an attenuation of 70 dB to 80 dB for a 1 GHz signal.

Abstract: Methods and apparatus for shielding enclosures having connector apertures result in effective electromagnetic isolation of the electromagnetic environment internal to a shielded enclosure from the external environment. Embodiments of the present invention may also accommodate the effective implementation of a low cost filter pin connector. An integrated shield ring may create an EMI doghouse with a metal ring that attaches onto a bulkhead board mounted connector that is bonded to a circular chassis ground plane on a printed wiring board (PWB) assembly.

Abstract: A unique laptop computer or similar device carrying case, which can also shield an individual from electromagnetic radiation (EMF) including RF microwave radiation and also heat transfer from the laptop computers when opened or in the closed positions. A conductive fabric is positioned against non-conductive plastic sheeting and is rolled up on itself, on four sides, to provide a larger effective virtual shield in the two side insulating sections, each of which includes an inner luan material with optional magnetic shielding or a perforated metal shield and a solid metal shield in the base to protect against electromagnetic radiation. The shield can be incorporated in existing cell phone/PC cases or flip top cell phone cases. Further, a pocket shield can be used to store cell phones in apparel pockets.

Abstract: An EMI shielded isolation chamber is provided, having an integral manipulator for manipulating electronic devices such as cell phones within the chamber, whereby a probe can be precisely positioned to selectively and directly actuate controls, switches, and keypads upon the devices anywhere in the chamber upon rotation of a probe tip. Extensible collapsible shielding boots are coupled between wall portions of the shielded chamber, adjacent a wall mounted manipulator support gimbal, and forward or rearward portions of the mechanical manipulator for preventing EMI signals from entering or leaving the shielded chamber. Alternatively, the gimbal constitutes the shielding device whereby a metallic hollow ball, slidably and rotatably supporting and containing the elongated manipulator, is mechanically biased snugly against a concave metallic member to block radiation from entering or leaving the shielded chamber.

Abstract: An apparatus providing one or more I/O connections to a computer. The apparatus includes a Faraday cage generally about a flex cable, or other computing element, that may translate when the I/O ports to the computer are utilized. The embodiment maintains the Faraday cage for the flex cable or element as the I/O port housing opens or closes.

Abstract: An electromagnetic interference (EMI) shield according to one embodiment generally includes a frame and a cover. The frame includes peripheral walls each having at least one folded portion forming an outer sidewall and an inner sidewall. The cover includes a lid portion and a plurality of edge portions extending downwardly from the lid portion. The shield includes at least one dimple configured to be engagingly received in at least one opening for releasably retaining the cover to the frame.

Abstract: A unique laptop computer or similar device carrying case which can also shield an individual electromagnetic radiation including RF microwave radiation and also heat transfer from the laptop computers when opened or in the closed positions. The invention includes sewn insulating sections along the internal nylon face and an external leather face. A conductive fabric is positioned against the non-conductive plastic sheeting and is rolled up on itself, on four sides, to provide a larger effective virtual shield in the two side insulating sections, each of which includes an inner perforated metal shield and a solid metal shield in the base to protect against electromagnetic radiation. The sections fold inwardly to provide a carrying case held together with four Velcro® strips on the exterior of the case.

Abstract: Embodiments of electromagnetic interference (EMI) shielding containers are disclosed according to the present invention. The EMI shielding containers are especially useful for protecting sources of electronic evidence from EMI contamination prior to data extraction. However, the embodiments of EMI shielding containers of the present invention may be used in any context where a wireless device is to be shielded from transmitting or receiving electromagnetic signals. Embodiments of methods of using EMI shielding containers to extract data from electronic devices are also disclosed.

Abstract: An electromagnetic interference (EMI) shield according to one embodiment generally includes a frame and a cover. The frame includes peripheral walls each having at least one folded portion forming an outer sidewall and an inner sidewall. The cover includes a lid portion and a plurality of edge portions extending downwardly from the lid portion. The shield includes at least one dimple configured to be engagingly received in at least one opening for releasably retaining the cover to the frame.

Abstract: An apparatus and method is provided to shield contactless portable electronic consumer devices such as radio frequency identification devices (RFID), tokens, mini-cards, key fobs, cellular phones, smartcards, etc. from wireless interrogation. In one embodiment, a contactless portable consumer device which includes a first antenna is shielded from unauthorized wireless interrogation with a radio frequency (RF) shield. The RF shield includes electrically conductive, non-ferromagnetic material and is configured to prevent unauthorized data transfer between a second antenna external to the portable consumer device and the first antenna.

Abstract: An electronic device including a first housing, a second housing, a signal cable, an insulating layer and an antenna is provided. The second housing is connected to the first housing and has a housing shielding layer on its inner surface. The signal cable extends from inside the first housing into the second housing and has a cable shielding layer on its outer surface. The insulating layer is disposed between the housing shielding layer and the cable shielding layer so as to electrically insulate the housing shielding layer from the cable shielding layer. The antenna is disposed inside the second housing. The insulating layer prevents the housing shielding layer from contacting the cable shielding layer so that the influence of the system noise on the sensitivity of the antenna can be reduced.

Abstract: Apparatus for housing electrically powered components to protect such components from damage and interference caused by lightning strikes and other externally generated magnetic fields. On embodiment includes a shielded enclosure mounted on an electrically groundable platform mounted on legs. An extendable and retractable mast is disclosed and may be supported on the platform and electrically grounded thereto. In another embodiment, the platform is portable and the shielded enclosures may be mounted to the electrically groundable platform by shock absorbers and be electrically grounded thereto. Adjustable outriggers may also be mounted to the platform.