Abstract: An apparatus includes a device contactor having an integrated radio frequency (“RF”) shield and a gasket coupled to a first surface of the device contactor. When the device contactor is removably attached to a printed circuit board (“PCB”), the gasket contacts the PCB, and the RF shield and the gasket form a Faraday cage that shields a device under test and/or circuitry associated with the device under test from RF noise.

Abstract: Provided is a metal strip for an electromagnetic interference shield case. The metal strip is uniform in width and thickness. A metal clip that is integrated with at least one pair of face-to-face elastic parts and is appropriate for soldering is fitted on an end of the metal strip along a width direction of the metal strip. The metal strip is bent and cut so as to have a shape corresponding to a ground pattern disposed on a printed circuit board, and then, a bottom surface of the metal clip is soldered to the ground pattern or a solder member disposed on the ground pattern.

Abstract: A shielding structure includes a frame and a removable plate. The frame includes a peripheral wall, and the removable plate located in the opening may be fixed to the connecting board, the removable plate defining an access hole. A scored line is defined between the removable plate and the connecting board. The shielding structure further defines an arcuate gap between the removable plate and the connecting board and communicating with the scored line, and a mating hole, the arcuate gap is for increasing the shearing stresses on shielding structure the scored line when the removable plate must be removed.

Abstract: An optical transceiver that reduces the EMI noise leaked therefrom is reduced is disclosed. The optical transceiver of the invention provides a metal housing, an optical subassembly, and an electronic circuit. The metal housing includes a first space that installs the electronic circuit and a second space that installs the optical subassembly. The first space and the second space are electrically shielded to each other, in addition that both spaces are shielded from the external. In the optical transceiver of the invention, even the second space provides the optical path to the optical connector, which becomes a definite leak path for the EMI noise, the leakage from the first space to the external through the optical path is prevented.

Abstract: A casing for containing electronic equipment includes a casing member of the metal plate having an opening; a closing member for closing the opening; a first inclined plate portion provided at an edge of the opening, the first inclined plate portion being inclined relative to a plate portion of the casing member and being provided by bending the casing member; a second inclined plate portion provided at a edge of the closing member, the second inclined plate portion being provided by bending the closing member, and the second inclined plate portion being opposed to the first inclined plate portion when the closing member is mounted to close the opening; and an elastic member having an electroconductivity and provided compressed between the first inclined plate portion and the second inclined plate portion.

Abstract: A coupling area enhancement device includes a small coil and a large coil on opposing sides of a sheet of electromagnetic interference (EMI) absorptive material. The coupling area enhancement device may include one or more holes and may include adhesive material and sticker covers. Placement of the coupling area enhancement device may be accomplished by sticking the small coil to a host device near a contactless antenna. The large coil may also be stuck to a battery cover.

Abstract: An antenna mount assembly is disclosed. The antenna mount assembly includes an output contact and an antenna mount body. The antenna mount body includes an output portion, a shielding compartment for housing and electromagnetically shielding a connection between a coaxial cable and the output contact, and an access port to permit access to the shielding compartment around the connection between the coaxial cable and the output contact. An antenna mount nut is mechanically attachable to the output portion of the antenna mount body. The antenna mount nut is configured for mechanically attaching an antenna to the antenna mount body. The output contact is coupled to the antenna mount body. The output contact extends from the output portion and into the shielding compartment for electrically connecting the coaxial cable to the output portion. Antenna mount bodies, connector assemblies and methods of making and installing antenna mounts, and connectors are also disclosed.

Abstract: Cover for electronic equipment including at least two movable metal panel elements. The panel elements are joined together along their respective edges, so they are joined together and in relation to each other immobile state form the cover. The invention is wherein the cover includes a respective connector for mechanical joining and good electric contacting along each one of the edges along which the panel elements are arranged to be joined together, in that each connector includes a respective resilient metal contacting device, which contacting device is arranged between the respectively joined together panel elements and in direct contact with both panel elements when the panel elements are in the joined together state, and thereby is compressed against the spring force of the contacting device, so that the spring force acts against the surfaces of both the respective joined together panel elements and connects them to each other electrically.

Abstract: A printed wiring board including a conductive layer, the conductive layer including a network of nanotubes with respective longitudinal axes, the nanotubes arranged such that their longitudinal axes are aligned substantially parallel to one another in a configuration such that electrical current passing through the conductive layer along a first axis substantially parallel to the longitudinal axes of the nanotubes experiences one degree of dissipation, and electrical current passing through the conductive layer along a second axis experiences a higher degree of dissipation.

Abstract: A shielding assembly includes a hollow frame, a pair of first resilient clips and a cover. The frame defines a receiving room and includes a pair of opposite first sidewalls, a second sidewall, a third sidewall opposite to the second sidewall, and a plurality of platforms configured along at least two diagonal corners of the hollow frame. Each of the resilient clip includes a clamping portion extending to suspend in the receiving room. The first resilient clips and the platforms are cooperatively defining a pair of guiding grooves. The cover is inserted into the guiding grooves and positioned between the platforms and first resilient clips by the clamping portions and the platforms resisting on two sides of the cover respectively.

Abstract: Disclosed herein are exemplary embodiments of methods of making frames for electromagnetic (EMI) shielding apparatus. An exemplary method generally includes forming a frame to have at least a first frame portion, a second frame portion, and a common sidewall including at least a portion shared by and connecting the first and second frame portions. The second frame portion is repositioned from being disposed within a footprint of the first frame portion to outside the footprint of the first frame portion. Another exemplary embodiment includes a frame having first and second frame portions. The second frame portion is of a size sufficient to fit within an interior region defined by the first frame portion. The first and second frame portions share at least a portion of a common sidewall having a bendable hinge portion that connects the second frame portion to the first frame portion.

Abstract: The present invention provides a configuration of a computer-chassis containment or other electromagnetic device method for manufacture in which a “one-hit” solution may be implemented to provide adequate electromagnetic interference shielding (EMC shielding) and is configured such that shielding gaskets, “spoons” or other excessive structures may be reduced or eliminated completely. Patterned sinusoidal “patterns” that are stamped, molded, cut, or extruded into one or more sides of a “box” provide sufficient EMI shielding, such that the need for gaskets is reduced or eliminated.

Abstract: An electrical device includes a circuit board having one or more electrical components mounted to the circuit board. At least a portion of the circuit board is encapsulated in a thermoplastic polymer material to encapsulate the electrical components. The device may be fabricated by at least partially shielding the electrical components with polymer material, followed by overmolding the polymer material with thermoplastic polymer material. The shielding material may comprise a pre-formed component, or it may comprise thermoplastic polymer material that is molded around the electrical components in a first molding step or “shot”.

Abstract: A structure for supporting a printed wiring board housed in a housing of an electronic device. The supporting structure includes a first projection formed on the housing and projecting toward the printed wiring board. The electronic device includes a conductor plate, which is grounded and accommodated in the housing. A second projection is formed on the conductor plate and projects toward the printed wiring board. The printed wiring board includes a substrate and a ground layer, which is arranged on the substrate. The first projection of the housing and the second projection of the conductor plate hold and support the printed wiring board in between and thereby electrically connect the ground layer to the conductor plate.

Abstract: An electronic device includes a case, a board module, and an electrostatic discharging module. The case has a conductive area. The board module is disposed in the case and has a ground end. The electrostatic discharging module is disposed on the case. Besides, the electrostatic discharging module includes a first discharging element and a second discharging element. The first discharging element is electrically connected to the ground end, and the second discharging element is electrically connected to the conductive area. There exists a gap between the first discharging element and the second discharging element, so that leak current generated by the board module can be prevented from being transmitted to the case, and that an electrostatic charge can be transmitted from the case to the ground end.

Abstract: An electromagnetic interference shielding device includes a frame, two first shielding members, and two second shielding members. The first shielding members respectively extend forwards from top and bottom sides of the frame. Each first shielding member includes an elongated first plate, and a number of longitudinally spaced first engaging portions protruding from an outer side of the first plate. The second shielding members are slidably and respectively coupled to front sides of the first shielding members. Each second shielding member includes an elongated second plate, and a number of longitudinally spaced second engaging portions protruding from an outer side of the second plate. The second shielding members are slid relative to the corresponding first shielding members, to allow the second engaging portions of the second shielding members to respectively align with or stagger from the first engaging portions of the corresponding first shielding members.

Abstract: An electrical connector assembly includes an electrically conductive cage having a cage end configured for mounting in a panel opening. The cage has a compartment for receiving a pluggable electrical component therein. The cage end has a circumference defined by an exterior surface of the cage. A retention frame extends over the cage end along at least a portion of the circumference. The retention frame includes a gasket side and a rear side. A retention opening extends through the gasket and rear sides of the retention frame. An EMI gasket is mounted on the cage end. The EMI gasket includes a length of electrically conductive cord having opposite cord ends. The cord is wrapped externally around the cage end forming a continuous band that engages the exterior surface of the cage along at least a portion of the circumference. The cord extends along and engages the gasket side of the retention frame and the cord ends extend through the retention opening and along the rear side of the retention frame.

Abstract: A shielding assembly includes a frame including a main body, the main body defining at least one retaining hole; and a cover including a main board, the main panel including retaining elements and rims. The number of the retaining elements is the same as the number of the retaining holes, each rim protruding outwardly from a distal end of one of retaining elements. Each retaining element passes through one of the retaining holes, and each rim is latched with the portions of the frame surrounding the retaining holes.

Abstract: When manufacturing an electronic component having a flip chip or a surface mount component mounted on a sheet substrate and being covered with a shield cover, the above shield cover is dipped into cream solder and placed on the above sheet substrate after the above cream solder is attached to the peripheral edge sides of the above shield cover, and then the shield cover is fixed to the sheet substrate by reflow process. With such manufacturing, it becomes possible to efficiently fix the shield cover to the sheet substrate. Also, the shield cover can securely be fixed against the bend of the sheet substrate produced during the reflow.

Abstract: A shielding cage (1) partially mounted to an opening (31) defined through a panel (3) for at least an electrical module. The shielding cage has a cage body (13) and a gasket (14) mounted around a front portion of the cage body. The cage body has a number of side walls (100) and a front opening (101) defined between the side walls for receiving the electrical module. The gasket (14) has a base (142) resisting against a side face of the panel, and a horizontal portion (141) extending from the base and into the opening of the panel for firmly abutting against the inner surface of the opening.

Abstract: A combined environmental and electromagnetic rotary seal. The invention is adapted for use between two mutually rotating components of an electromagnetic energy transmission system and provides simultaneous protection against contamination from the environment and unwanted electromagnetic leakage. In the illustrative embodiment, a first set of grooves is cut into the exterior of a first conductive cylindrical component whose interior contains a portion of a millimeter-wave beam waveguide energy transmission system, the grooves comprising the electromagnetic portion of the seal and a second set of grooves is cut into the interior of the conductive housing enclosing the first conductive cylindrical component.

Abstract: A peripheral card EMI shielding scheme which comprises a sandwich of three layers. The first layer comprises a chassis rear wall (e.g., constructed of sheet metal). The next layer, which in certain embodiments is the middle of the sandwich, comprises a relatively thin plate (e.g., 0.15 mm+/?0.1 mm) with spring arms. The third layer comprises a sheet metal plate (in certain embodiments, the third layer has a similar thickness to the rear wall). The thick sheet metal plate completely covers the thin plate, except for areas where the spring arms protrude. The three plates are staked together by a method similar to an extrude-and-roll process (e.g., where one piece is fastened to another without the need for additional hardware or welding).

Abstract: An electrically continuous, grounded conformal EMI protective shield and methods for applying same directly to the surfaces of a printed circuit board. The EMI shield adheres and conforms to the surface of the components and printed wiring board. The shield takes the shape of the covered surfaces while adding little to the dimensions of the surfaces. The EMI shield includes low viscosity, high adherence conductive and dielectric coatings each of which can be applied in one or more layers. The dielectric coating is initially applied to selected locations of the printed circuit board so as to be interposed between the conductive coating and the printed circuit board, preventing the conductive coating from electrically contacting selected components and printed wiring board regions. A high viscosity, non-electrically-conductive filler material is applied to printed circuit board regions that have surfaces that are cavitatious and/or which have a highly variable slope.

Abstract: An EMI/ESD protection module is disposed between a first metal connecting member and a second metal connecting member. The EMI/ESD protection module includes a first conductive member, a second conductive member and a resilient member. The first conductive member is electrically connected to the first metal connecting member. The second conductive member is movably connected to the first conductive member and electrically connected to the second metal connecting member. The resilient member is disposed between the first and second conductive members.

Abstract: An electromagnetic shield structure of an electronics housing includes a terminal having a protrusion for external connection; a substrate having the terminal disposed thereon and electrically connected to the terminal; a housing made of resin, enclosing the substrate and having an opening at a position corresponding to the protrusion of the terminal on a front surface side where the protrusion of the terminal is located; and an electromagnetic shield disposed so as to surround the substrate inside the housing, having an opening at the position corresponding to the protrusion of the terminal, and electromagnetically shielding the substrate. The electromagnetic shield has a bent portion formed on the front surface side for filling a gap between the terminal and the housing.

Abstract: An electronic housing assembly is formed with an environmental seal (20), EMI control (56) and a good thermal coupling (44, 46) made between enclosed hot electric components (48, 50) and an exterior heat sink (52, 54).

Abstract: A storage system and devices are provided for containing items and shielding the items from electromagnetic radiation, in particular, RF radiation, and holding the items in a waterproof environment. The storage system includes a first storage component which is constructed from a fabric having shieldable properties and is configured to envelope contents held therein in a shielded environment, and a second storage component which is constructed to receive the first storage component therein and provide waterproof storage for the contents. The storage system protects contents from unauthorized or surreptitious reads of stored data that may be carried on the content items by readers. The storage components of the storage system may be used independently of each other or together, as needed or desired.

Abstract: An improved container configured to store a wireless-enabled device therein and also configured to prevent the wireless-enabled device from being activated by an external wireless signal.

Abstract: A PCB assembly, includes a shield-can and a PCB, the shield-can forms resisting portions and hook members; The PCB has a top surface and an opposite bottom surface, and the PCB defines engaging holes through the top surface and bottom surface; The shield-can be detachably assembled on the PCB, the resisting portions resist against the top surface of the PCB, and the hook members pass through the engaging holes, the distal ends of the hook members resist against the bottom surface of the PCB.

Abstract: An electronic device including a housing, a circuit board, a first non-metal conductive cushion and a fastening element is provided. The circuit board is disposed in the housing. The first non-metal conductive cushion is disposed between the circuit board and the housing. A potential of the first non-metal conductive cushion is equal to a potential of the housing. The fastening element fastens the circuit board and the non-metal conductive cushion to the housing.

Abstract: In a module having an electrical component, which is situated between two ground planes for electromagnetic shielding, a trough-shaped composite component is provided between an inner and an outer housing, into which the rear side of the inner housing is inserted, the composite component having an insulator trough and, on its inside, a ground plane formed at least on the trough bottom, which forms the shielding of a rear side of the electrical component. The composite component is advantageously designed as an MID component. The outer housing of the module may be manufactured in the two-component injection molding process by extrusion-coating initially using an elastomer and subsequently a thermoplast.

Abstract: A shielding device includes a frame, a shielding enclosure and a shaft. The frame includes sidewalls and at least one hinged portion. The shielding enclosure includes a cover and flanges extending therefrom for engagement with the sidewalls of the frame. A barrel portion is formed on the shielding enclosure and is aligned with the hinged portion. The shaft extends through the hinged portion and the barrel portion for rotatably connecting the shielding enclosure to the frame.

Abstract: An optical engine is provided, including an imaging module, a driver module and a connecting unit. The imaging module includes an imaging housing with an imaging space and an imaging unit installed in the imaging space. The imaging housing is made of a conductive material. The driver module includes a driver housing with a driver space and a driver circuit board installed in the driver space. The connecting unit includes at least one of the cables is electrically connected to the imaging unit and the driver circuit board and at least a protruding module protruding from the imaging housing (or the driver housing) to contact with the driver housing (or the imaging housing). The cable is installed in the protruding module made of a conductive material.

Abstract: There is provided a radiation amount reducing device including a plurality of slit formed to a band-shape in a cover region, which is set in a plane of a metal plate capable of entirely covering at least one surface of an electromagnetic wave generation source, and spaced apart from each other, each of the plurality of slits including a drawing slit formed extending from a ferromagnetic field position towards a central part of the cover region and a coupling slit formed extending in parallel with another slit from an end in a central part direction of the cover region in the drawing slit.

Abstract: This is directed to methods and apparatus for shielding a circuitry region of an electronic device from interference (e.g., EMI). A conductive dam may be formed about a periphery of the circuitry region. A non-conductive or electrically insulating fill may then be applied to the circuitry region within the dam. Next, a conductive cover may be applied above the fill. The cover may be electrically coupled to the dam. The dam may include two or more layers of conductive material stacked on top of one another. In some embodiments, the conductive cover may be pad printed or screen printed above the fill. In other embodiments, the conductive cover may be a conductive tablet that is melted above the fill.

Abstract: A shielding assembly includes a frame including a catch protruding near one end thereof; and a cover including a main body. The main body is punched to form an opening and a latching portion protruding from the main body and aligned with the opening; the latching portion latches with the catch, the latching portion shields the opening to improve the shielding affect of the shielding assembly.

Abstract: An external EMI diverting structure to electrically shield an electronic device from EMI is presented. The electronic device is physically isolated from the case ground which interrupts the EMI or lightning fault path. This shield provides a return path to ground for the EMI away from the electronic device and replaces conventional EMI filter capacitors, which are not connected to case ground. The external EMI diverter comprises a first conducting enclosure enclosing the electrical circuit and is electrically coupled to the electric circuit and a second conducting enclosure enclosing the first conducting enclosure and being electrically isolated from the first conducting enclosure and the electric circuit. The diverter is physically and electrically connected to the case ground at an attachment point.

Abstract: An antenna mount assembly is disclosed. The antenna mount assembly includes an output contact and an antenna mount body. The antenna mount body includes an output portion, a shielding compartment for housing and electromagnetically shielding a connection between a coaxial cable and the output contact, and an access port to permit access to the shielding compartment around the connection between the coaxial cable and the output contact. An antenna mount nut is mechanically attachable to the output portion of the antenna mount body. The antenna mount nut is configured for mechanically attaching an antenna to the antenna mount body. The output contact is coupled to the antenna mount body. The output contact extends from the output portion and into the shielding compartment for electrically connecting the coaxial cable to the output portion. Antenna mount bodies, connector assemblies and methods of making and installing antenna mounts, and connectors are also disclosed.

Abstract: A computer enclosure with a user interface having an improved user-accessibility. The user interface is located at the upper front corner of the computer enclosure box. In the preferred embodiment, the interface is located on a protrusion extending out of the upper front corner of the enclosure box. The user interface has a surface plane that is preferably angled between 20-70 degrees to the ground to which the enclosure sits on. In other preferred embodiments, the user interface has a surface plane that is preferably angled between 40-60 degrees to the ground to which the enclosure sits on.

Abstract: An electrostatic discharge guide using metal sputtering process and modifying plastic case is applied to an electronic device. The plastic case and a metal case are laminated. The plastic case is defined with a tip portion spaced from the metal case on side wall thereof. A conductive layer formed on the surface of the plastic case opposite to the metal case extends to the tip of the tip portion, and is electrically connected to a ground of the electronic device. Therefore, when electrostatic charges accumulated on the metal case exceed a specific value, the static electricity is discharged to the ground of the electronic device based on the point discharge principle, instead of causing an electric shock to a user.

Abstract: A module retention and electromagnetic interference (EMI) cage has a substantially flat, rectangular metal frame with retaining clip portions and EMI-shielding contact fingers. The frame has surface-mount legs to facilitate surface mounting the cage to the circuit board. An array connector is mounted on the circuit board within a central region of the cage. An electronic module can be inserted or plugged into the cage in conjunction with connecting the module to the array connector. As the module is inserted into the cage, the module resiliently deflects the EMI-shielding contact fingers. At approximately the same time as the connector of the electronic module mates with the array connector, the retaining clip portion mates with a portion of the housing to retain the module in this position.

Abstract: A shielding device for shielding an electronic component (102) to be mounted on a printed circuit board (132). The shielding device exhibiting a top shielding (110) and a bottom shielding (120; 140; 160; 180) separable from each other, wherein the top shielding includes an electrically and/or magnetically conductive material and the bottom shielding is multilayered. The bottom shielding exhibits at least one electrically and/or magnetically conductive metal sheet layer (122; 162; 164) embedded between at least two insulating layers (126; 124) and includes at least two electrically conductive transmission lines (172; 174; 176) for conducting electric current to the electronic component. The top shielding and the conductive metal sheet layer are electrically isolated from the electronic component. The bottom shielding integrated into the printed circuit board and the top shielding and the bottom shielding designed such when they are attached to each other, they completely envelope the electronic component.

Abstract: The present invention provides a configuration of a computer-chassis containment or other electromagnetic device method for manufacture in which a “one-hit” solution may be implemented to provide adequate electromagnetic interference shielding (EMC shielding) and is configured such that shielding gaskets, “spoons” or other excessive structures may be reduced or eliminated completely. Patterned sinusoidal “patterns” that are stamped, molded, cut, or extruded into one or more sides of a “box” provide sufficient EMI shielding, such that the need for gaskets is reduced or eliminated.

Abstract: An electromagnetic compatibility protection system for electrical cables inside a tower with an internal down-conductor is disclosed. The electromagnetic compatibility protection has a U-shaped shield with a base portion and two adjoining side portions. The base portion and the side portions define a protected space for the electrical cables. A tower with the electromagnetic compatibility protection system is also disclosed.

Abstract: A cushioning member for use in a circuit board includes an elastic main body and a fixing element. The fixing element is coupled with the elastic main body and aligned with a perforation of the circuit board. The fixing element includes an extension part and a fastening part. The extension part is arranged between the elastic main body and the fastening part. The fastening part is arranged on an end of the fixing element. The fastening part is sustained against a first surface of the circuit board and the extension part is received in the perforation after the fixing element is penetrated through the perforation, so that the cushioning member is combined with the circuit board and the elastic main body is attached on a second surface of the circuit board, wherein a cushioning efficacy is provided when the electronic device is suffered from an external force.

Abstract: The present invention provides a configuration of a computer-chassis containment or other electromagnetic device method for manufacture in which a “one-hit” solution may be implemented to provide adequate electromagnetic interference shielding (EMC shielding) and is configured such that shielding gaskets, “spoons” or other excessive structures may be reduced or eliminated completely. Patterned sinusoidal “patterns” that are stamped, molded, cut, or extruded into one or more sides of a “box” provide sufficient EMI shielding, such that the need for gaskets is reduced or eliminated.

Abstract: An electronic device includes an upper shield arranged on a front side of a circuit board, and a lower shield arranged on a back side thereof. The lower shield includes a contact portion at an edge thereof. The contact portion is in contact with a lower surface of the circuit board. A plate spring portion is formed in the contact portion. An end portion of the plate spring portion abuts on the upper shield. Thus, it is possible to improve a shield effect against an electromagnetic wave using the shields.

Abstract: A shield for a connector that can provide a card-receiving slot is disclosed. The shield includes sides that provide an enclosure. The shield includes a fastener that is held in place by a retaining notch in a bottom of the shield. The retaining notch is configured to support the fastener in place and restrain it from unintended translation or rotation.

Abstract: A flex-rigid wiring board includes a flexible board including a flexible substrate and a conductor pattern formed over the flexible substrate, a non-flexible substrate disposed adjacent to the flexible board, an insulating layer including an inorganic material and covering the flexible board and the non-flexible substrate, the insulating layer exposing at least one portion of the flexible board, a conductor pattern formed on the insulating layer, and a plating layer connecting the conductor pattern of the flexible board and the conductor pattern on the insulating layer.

Abstract: The present invention provides a shield structure for an electronic device allowing conductive members to be connected electrically to each other at low impedance while preventing the leakage of electromagnetic waves effectively. The first conductive member and the second conductive member for enclosing the electronic device respectively have laid portions that are laid one on the other and fastened to each other at plural positions by means of screw members. Through-holes into which the screw members are to be inserted are formed on both of the laid portions. Protruding portions, which protrude toward the laid portion of the second conductive member, each are formed between the adjacent through-holes on the laid portion of the first conductive member. The protruding portions each have a shape extending in the direction connecting the adjacent through-holes and bulging from both ends toward the center thereof in a smooth curve.