Abstract: A plasma display device includes a plasma display, a chassis having conductivity that supports the plasma display, a tuner circuit, a scan driver, a sustaining driver and so forth used to display a video on the plasma display, a back cover that covers the chassis, the scan driver, the sustaining driver, etc., and a shield body that covers the tuner circuit. The shield body is electrically connected to the chassis and to the back cover.

Abstract: The invention relates to an apparatus and arrangement for shielding a light emitting diode against electrostatic discharges during usage. On a printed circuit board (103, 203) there is placed a light emitting diode (108, 208), and on the component side of the circuit board (103, 203), there is arranged a photoconductor layer (102, 202). In the photoconductor layer (102, 202), there is induced electroconductive material (110, 210), and the electroconductive material is connected to the ground plane (111) of the circuit board in order to conduct the electrostatic discharge from the photoconductor layer (102, 202) to the ground plane.

Abstract: An electrostatic shield for an HVDC transmission component, the terminals of which lie at high potential relative to earth during operation, in particular for an HVDC transmission air-core coil, is distinguished by a sheathing, which is provided on at least one end with a collector electrode running substantially over its periphery for connection to one of the terminals of the HVDC transmission component, wherein the sheathing is made from a film composed of electrostatically dissipative material with a surface resistivity in the range of 109 to 1014 ohm/square.

Abstract: Various embodiments disclose a shielded or isolated heat dissipating system comprising a case, a heat sink base, and a circuit board comprising at least one electronic device for which heat dissipation is desired. The heat sink base is attached to the case and together with the shielding case defines an enclosed space within which electromagnetic interference is reduced. Both heat-dissipation function and electromagnetic shielding function may be achieved by the combination of the heatsink base and the case while maintain electrical isolation with one or more specially treated components. The space required for mounting the system may also be reduced without adversely affecting normal and stable operation of the electronic device.

Abstract: The invention relates to an assembly of at least one carrier (12), at least one telecommunications module (10) mounted on the carrier (12) and at least two grounding elements (14, 16), at least one grounding element (14) being fitted to the telecommunications module, and at least one grounding element (16) being fitted to the carrier (12), wherein the grounding elements (14, 16) are in direct contact with each other and can be pivoted with regard to each other while keeping the contact.

Abstract: In one exemplary embodiment, an electromagnetic interference (EMI) shielding apparatus generally includes a shield and a gasket. The gasket includes at least one tab formed monolithically with the gasket and attached to a support or portion of the gasket. The at least one tab is movable relative to the support from a first, pre-installed configuration in which the at least one tab is generally co-planar with the support to a second, installed configuration in which the at least one tab extends generally outwardly relative to the support. Movement of the at least one tab from the first configuration to the second configuration may position the at least one tab at least partially within the at least one opening of the shield. Frictional engagement of the at least one tab within the at least one opening may help retain the relative positioning of the gasket to the shield.

Abstract: A camera unit includes an image sensor, a circuit board in which a signal processor circuit to process an output signal of the image sensor is formed, a cable including a signal conductor element and a ground conductor element and connected at one end to the circuit board, and a shielding component formed to enclose the circuit board therewith. The ground conductor element is connected to both a ground terminal of the circuit board and the shielding component in a vicinity of the end of the cable.

Abstract: A shielding device with a replaceable top, comprising: a metallic frame 1 having side walls interconnected with a top portion having a top surface 10 thereon; a removable top surface 12 attached to the top surface 10; and a metallic cap 2 attached to the frame when the removable top surface 12 is removed from the metallic frame 1.

Abstract: The present invention discloses a container or bag with several types of compartments with different forms of electromagnetic/wireless shielding. The types of compartments include a) an electromagnetic/wireless shielded compartment useful for line-of-site type shielding, b) an electromagnetic/wireless shielded compartment useful when a complete shielding enclosure is needed, and c) an unshielded compartment. The line-of-site shielded compartment prevents wireless access to the contents contained within when a complete shielding enclosure is not required, for example, for objects containing RFID tags, such as passports, books, and clothing. The compartment with a complete shielding enclosure prevents wireless access to devices that require a complete Faraday type cage, such as mobile phones, PDAs, or computers. Placing these and other devices within the shielded compartments protects them from remote access, and the data within is shielded from unscrupulous individuals.

Abstract: A radar electronics module includes a support structure having a first surface having a plurality of recesses with a transmitter circuit board and a receiver circuit board disposed thereon. The transmitter and receiver circuit boards are disposed over the first surface of the supports structure such that transmitter and receive circuits are disposed in cavities on the support structure. The radar electronics module further includes a digital/power supply circuit printed wiring board (PWB) disposed on a second surface of the support structure and a connector disposed on the support structure. The connector is disposed in such a way that it provides electrical connections for at least one of power signals, analog signals or digital signals between at least two of the digital/power supply PWB, the transmitter circuit board and the receiver circuit board.

Abstract: An anti-electromagnetic interference (anti-EMI) corner shield unit for a shielding device is disclosed. The shielding device is designed for fastening to a printed circuit board and includes an upper lid and a frame, and the frame includes a plurality of sequentially connected side walls with a gap left at each joint of two adjacent side walls. The anti-EMI corner shield unit includes an L-shaped shield plate having a first and a second shield plate for mounting to an inner side of each corner of the frame formed at the joint of any two adjacent side walls, so as to completely shield the gap left at the joint; and a clip provided at a lower edge of each of the first and the second shield plate for receiving and firmly clamping on the side wall of the frame.

Abstract: An insertion slot shielding mechanism for an electronic device is used to shield an insertion slot provided in an opening of a casing of an electronic device. The insertion slot shielding mechanism includes a shielding means and an elastic pushing piece. The shielding means corresponds to the opening and is slidably connected to the opening of the casing. One end of the elastic pushing piece is connected to a side wall within the electronic device corresponding to the opening of the casing, and the other end thereof is kept to abut against the shielding means. The elastic force of the elastic pushing piece allows the shielding means to be located in a position to shield the opening of the casing.

Abstract: An EMI shielding device is set in an electronic device. The electronic device includes a shell, a circuit board set in the shell, and an electrical component set on the circuit board. The shielding device includes a middle board and a shielding cover. The middle board is set inside the electronic device. The shielding cover is set on the middle board and covers an outside of the electrical component. Thus, the EMI shielding device is structured. The material of the shielding cover is widely used, so the cost of the material is markedly reduced. After the shielding cover is opened, it is easy to restore the shielding state. The shielding cover is set inside the electronic device via the middle board, so assembly is easy and it is not limited by changes in the shape or the structure of the shell, so applicability is improved.

Abstract: A shielded integrated circuit structure including an integrated circuit having a plurality of functional elements thereon, and a tiled array comprising a plurality of shielding elements, each functional element having one of the plurality of shielding elements proximate thereto. The shielding elements comprise a magnetic material having a saturation less than or equal to 20,000 gauss.

Abstract: A shielding structure is provided for shielding a signal path extending between a first layer and a second layer in an electronic device at a transition region with a transition that extends in a first direction and a second direction orthogonal to the first direction. The shielding structure includes a shielding structure portion, which includes a first shielding via in proximity to a first area of the signal path at the transition; a second shielding via in proximity to a second area of the signal path at the transition; and an area metallization electrically coupled to the first shielding via.

Abstract: To shorten a period of time necessary for performing routine inspections and reduce costs by monitoring a state such as a contact failure of a switching equipment which constitutes a power reception circuit or a branch circuit of a substation through a simple construction. A sensor attached IC tag application high voltage equipment is constructed by detachably mounting a sensor attached IC tag at a position where a sensor of a sensor attached IC tag obtains a physical quantity of a detection target, wherein the sensor attached IC tag is configured to communicate with an externally located IC tag reader.

Abstract: A housing structure for pluggable transceiver module includes a case being internally provided with a plurality of vertical partitioning plates, and having first protrusions provided on an upper and a lower side of a free edge at an open end of the case, and second protrusions provided on two opposite sides of a free end of each of the partitioning plates at the open end of the case; a plurality of first elastic-leaf members being clamped to the free edge of the case and having retaining holes engaged with the first protrusions; and a plurality of second elastic-leaf members being clamped to the free ends of the partitioning plates and having retaining holes engaged with the second protrusions. Therefore, the first and second elastic-leaf members are easily and securely assembled to the case and the partitioning plates via the first and second protrusions, respectively, without the need of spot welding.

Abstract: The invention is related to a computer enclosure. The computer enclosure includes a chassis, an expansion card, and a rotating member. The expansion card includes a shield plate which has a bent end formed thereon. The chassis includes a sidewall. A slot is defined in the sidewall. The sidewall forms a support plate at a side of the slot. The sidewall is capable of accepting the shield plate of the expansion card to shield the slot of the sidewall, and the support plate is configured to accepting the bent end of the expansion card. The rotating member includes an arm. The rotating member is capable of rotating on the sidewall to a locked position. In the locked position, the arm is capable of exerting force on the bent end of the expansion card located on the support plate, and the locked position is capable of securing the expansion card on the sidewall of the chassis.

Abstract: A security document (1) in the form of a booklet which has a large number of sheets (11, 12, 13) connected to one another to form the booklet. A first sheet (11) of the security document has a carrier layer (20), an antenna structure (21)—arranged in a first region (41)—for RF communication and an electronic circuit (22)—connected to the antenna structure (21)—with a memory device for storing data, and a communication device—connected to the antenna structure—for communicating data stored in the memory device to a reader via a radio interface by means of the antenna structure (21). A second sheet (13) of the security document has a carrier layer (30) and one or more electrically conductive layers shaped in a second region (43) for the formation of at least one LCR resonant circuit (3).

Abstract: A camera module unit includes a printed wiring board overlaid on a shielding enclosure. A camera module is supported on the surface of the shielding enclosure. The camera module is located inside a recess defined in the printed wiring board. A shielding metal plate covers over the camera module. An elastic piece is defined in the shielding metal plate. The elastic piece is resiliently received on the surface of the shielding enclosure. The shielding metal plate realizes a sufficient shielding for the camera module in the camera module unit. Electric current is allowed to easily run from the charged shielding metal plate to the shielding enclosure through the elastic piece. The camera module is supported on the shielding enclosure inside the recess. The height of the camera module is reduced above the printed wiring board.

Abstract: An electronic device including a first portion, a second portion, and a circuit board is provided. The first portion has a first surface including a first conductive region. The second portion has a second surface including a second conductive region and a second nonconductive region. The second conductive region and the second nonconductive region are respectively in contact with a part of the first conductive region. The circuit board has a plurality of electronic components thereon, and the circuit board is disposed at one side of the first portion and the second portion.

Abstract: An electronic ballast and ballast housing having an integral ground for a circuit board positioned within the housing. A ‘snap in’ capture means holds circuit board under flexion so as to press a circuit grounding means in electrical contact with an integral grounding device attached to the ballast housing and providing electrical continuity between the circuit grounding means and the ballast housing. The coupler includes a grounding tab with a fulcrum extension extending from the housing and holding a ground plane surface of the circuit board by means of serrated teeth. An alignment tab disposed on a housing wall receives an alignment slot disposed in the circuit board so as to provide proper alignment of the electrical contacts. The coupler includes an overhead extension that engages a jumper wire in the circuit of the circuit board.

Abstract: Terminal structures of an ion implanter having insulated conductors with dielectric fins are disclosed. In one particular exemplary embodiment, the terminal structures of an ion implanter may be realized with insulated conductors with one or more dielectric fins. For example, the ion implanter may comprise an ion source configured to provide an ion beam. The ion implanter may also comprise a terminal structure defining a cavity, wherein the ion source may be at least partially disposed within the cavity. The ion implanter may further comprise an insulated conductor having at least one dielectric fin disposed proximate an exterior portion of the terminal structure to modify an electric field.

Abstract: An EMI shielding device is set in an electronic device. The electronic device includes a shell, a circuit board set in the shell, and an electrical component set on the circuit board. The shielding device includes a middle board and a shielding cover. The middle board is set inside the electronic device. The shielding cover is set on the middle board and covers an outside of the electrical component. Thus, the EMI shielding device is structured. The material of the shielding cover is widely used, so the cost of the material is markedly reduced. After the shielding cover is opened, it is easy to restore the shielding state. The shielding cover is set inside the electronic device via the middle board, so assembly is easy and it is not limited by changes in the shape or the structure of the shell, so applicability is improved.

Abstract: A shielded circuit assembly includes first and second circuit support structure, e.g. circuit boards having electrical or electronic components thereon, flexible connection between the circuit support structures, e.g., a flexible printed circuit (FPC), flat flexible cable (FFC), or other connection, the first and second circuit support structures adapted for positioning in generally overlying spaced apart relation with the flexible connection providing electrical connection therebetween while having floor plans that tend to efficiently conserve space between the circuit support structures, and electromagnetic energy shielding adapted to provide shielding of space between the circuit support structures in such generally overlying spaced apart relation. A method of making a shielded circuit assembly includes folding one printed circuit board that is flexibly attached to another printed circuit board to a generally parallel spaced apart relation and providing shielding of space between the circuit boards.

Abstract: Systems and methods for simple, efficient and/or cost effective manufacturing and assembly of electronic devices are provided. The various systems and methods of the invention may include various ways of coupling, attaching, and/or connecting the various components of the system to one another, for improved cost and ease of assembly. A number of clips may be used to attach together various parts of an electronic system and housing including circuit devices, enclosure lid and housing, and/or cabling. These clips may be screw-less, may be made of a resilient or spring material, designed so that they quickly snap into place so as to provide good mechanical strength and electrical connection. Various circuit elements may include planar circuits, and may include filters made of a high temperature superconductor material. A planar cable may be used for electrical connecting of components. These systems and devices may be used in, for example, wireless communication systems.

Abstract: Disclosed is a non-contact charger. The present invention provides a non-contact charger capable of wireless data communication and power supply between a non-contact charger capable of computer UBS communication and a charging battery-pack of a mobile device, using an induced electromotive force, thereby to enable data communication and power supply at the same time and to make good signal transmission without other poor contacts in the contact transmission.

Abstract: A handheld electronic device may include a portable housing and a shielding container within the portable housing. The shielding container may include a shielding frame and a shielding lid carried thereby. A printed circuit board may be within the shielding container. The shielding frame may include a planar base with at least one opening therein, a pair of opposing side walls integrally formed with the base and extending upwardly therefrom, and a pair of opposing end walls integrally formed with the base and extending upwardly therefrom. Also, the shielding frame may include at least one intermediate partition wall integrally formed with the base and extending upwardly therefrom to define a plurality of container compartments. The partition wall may also extend only partway between the opposing side walls to define at least one partition end gap therewith.

Abstract: An electromagnetic shielding carrying case comprising a front and middle panel hingedly connected to a rear panel. The front panel and middle panel further comprise respective electromagnetic shielding members with a card holding means affixed to each. The carrying case has a closed state wherein the continuous upstanding walls of the front and rear panels are brought into engagement with one another so as to form an enclosure around the middle panel, thus shielding contactless smartcards within from being powered up by an RFID reader. A releasable locking means affixed to a front portion of the rear panel temporarily holds front panel closed, and can be unlocked so that the front panel pivots open, creating the first open state of the carrying case wherein contactless smartcards can be inserted and removed from both card holding means. The middle panel can also be pivoted open to reveal a pocket within the rear panel that holds paper currency and the like.

Abstract: A circuit board has a first face and a second face opposite to the first face. An antenna element is mounted on the first face. A shield cover is attached to the second face. The shield cover includes a polygonal base portion, a first wall provided on a first side of the polygonal base portion, a second wall provided on a second side of the polygonal base portion, a third wall provided on a corner defined by the first side and the second side, and disposed between the first wall and the second wall, a first extending portion extended from the first wall so as to overlap with the third wall, and a second extending portion extended from the second wall so as to overlap with the third wall. The shield cover is soldered on the second face.

Abstract: A shielding can (100) includes a shielding case (10) configured to reducing electromagnetic interference, and a cushion (20) integrally mounted to the shielding case by insert molding. The cushion is configured to absorb shock force. A method for making the shielding can includes the following steps: providing a mold; placing a shielding case in the mold; injecting shock absorbing material into the mold to form a cushion on the shielding case; cooling the molded shielding can; and removing the shielding can from the mold.

Abstract: A system for connecting circuit boards is provided. A plurality of overlapping spaced apart circuit boards have a plurality of conductive pins passing through holes in the circuit boards. A connector includes a flexible sheet insulator and a plurality of conductive surfaces separated and supported by the flexible insulator. At least one of the conductive surfaces has a hole there through and a bent compliant lead extending there from. The hole engages one of the pins, and the complaint lead connects to one of the circuit boards.

Abstract: A method is provided for protecting an electronics device, attached to a tire, during tire inspection, comprising placing a barrier in proximity to the electronics device wherein the barrier surrounds the electronics device, and removedly affixing the barrier to the tire with magnets.

Abstract: An input device of the invention includes a body formed with an accommodating part; an operation member having a basal end accommodated in the accommodating part and a distal end projected in a swinging operable manner to either side in a width direction and in a pushing operable manner from an neutral position; and an earth terminal for dissipating static electricity charged in the operation member. The input device is attachable to a circuit board. The earth terminal, being a metal plate insert molded in a wall, includes a contacting portion and first and second projections arranged near the operation member, and connecting parts exposed from the other end face of the body and solder connectable to respective earth patterns of the circuit board.

Abstract: An electronic device is disclosed. The electronic device includes a first sub assembly having a first housing component. The first housing component has an opening. The electronic device also includes a second sub assembly having a second housing component. The second housing component cooperates with the first housing component to enclose components of an electronic device. The at least one internal component is accessible through the opening. The at least one internal component is also movable relative to the second sub assembly so as to properly align with the opening. The at least one internal component is additionally magnetically attracted towards the first housing component near the opening.

Abstract: Electromagnetic radiation containment in an electronic module. In one example, an electronic module includes a housing, a printed circuit board, and an electrically conductive sealing element. The printed circuit board is partially positioned within the housing and defines an edge connector extending from the housing. The electrically conductive sealing element radially surrounds 360 degrees of one end of the housing and the printed circuit board proximate the edge connector such that when the edge connector is fully received in a host board connector mounted to a host board, the electrically conductive sealing element cooperates with a corresponding structure of the host board to at least partially define a Faraday cage substantially enclosing the edge connector and the host board connector. The housing defines a radial groove which aids in the retention of the sealing element.

Abstract: An entertainment system for use with a magnetic resonance imaging (MRI) device that includes video glasses and headphones. A Faraday shield encloses the entertainment system to reduce adequately RF signals from entering or leaving the entertainment system. The entertainment system may have non-ferromagnetic RF low-pass filters between parts of the system, such as the control unit and the video glasses, to reduce higher RF signals from entering or leaving those parts. To replace the battery and or entertainment media, a person opens the entertainment system's Faraday shield when not MRI imaging or outside the MRI magnet room. The door has an Faraday shield overlapping the system Faraday shield and making low resistance RF contact. The entertainment system has a minimal amount of ferromagnetic material so that it may operate within the high magnetic field of the MRI magnet bore with minimal performance degradation. The entertainment system uses non-ferromagnetic speakers in the headphone.

Abstract: A shield structure of a tuner apparatus includes: a circuit board on which a tuner circuit is provided; a shield case of sheet metal which accommodates and holds the circuit board; and a RF connector which is fixed to one side plate of the shield case so as to protrude outward and is electrically connected to the tuner circuit, wherein a box-shaped outer case is formed by connecting a case member of sheet metal which covers the shield case with the exception of the bottom surface portion thereof and the one side plate and a plate member of sheet metal which has a through hole, through which the RF connector passes, and covers the one side plate of the shield case, and wherein the outer case is unitized with the shield case.

Abstract: The invention relates to an electrical device comprising a supporting substrate (1) which supports electronic components (2) as well as a strip conductor structure for connecting the electronic components (2) and on which an electrically conducting shielding element is disposed that surrounds the strip conductor structure and the components (2). The shielding element is composed of a first pot-type shielding part (7), the edge region of the hole of which rests upon contact areas (5) of a first surface (8) of the supporting substrate (1), said contact areas (5) being connected to a fixed electrical potential, and a second pot-type shielding part (9), the edge region of the hole of which rests upon a second surface (10) of the supporting substrate (1). The shielding parts (7 and 9) can be fastened to the supporting substrate (1) by means of fastening attachments which engage into first recesses (6) of the supporting substrate (1).

Abstract: A spectrophotometric sensor is provided that includes a mating surface upon which electrical and optical components may be secured and a Faraday shield assembly secured to the mating surface enclosing a photodetector. The Faraday shield assembly includes alignment features that may be employed to provide mechanical registration and/or electrical coupling of the Faraday shield assembly. The spectrophotometric sensor may be placed on a patient's finger, toe, ear, and so forth to obtain hemoglobin oxygen saturation using pulse oximetry, or for other physiological measurements.

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 system for protecting electronic components to be disposed inside a computer housing comprising a gliding connector aligner for disposing inside the housing. The aligner has a central flat surface to be disposed over electronic components and a plurality of appendages with at least one nub each disposed at an opposing end to that of the central surface. The appendages are substantially perpendicular to the flat surface. An EMC gasket is also provided around the housing. The gasket in one embodiment has a plurality of portions with each portion having a central support line from which a plurality of complementary spring fingers emanates. The portions are connected to one another via a tab such that said gasket can be stretched around all housing corners such that said spring fingers from different portions are placed in a substantially perpendicular direction to one another.

Abstract: An energy transfer apparatus with a magnetic shield is configured to magnetically couple energy from a fixed location to a mobile or moveable device within a field-activated space of the energy transfer apparatus. Apparatuses include a location sensing surface and a drive coil arranged in relation to a periphery of the location sensing surface. A magnetic shield plate is disposed below the location sensing surface and the drive coil. The shield plate includes a number of radially oriented slots originating at, and distributed about, a periphery of the shield plate.

Abstract: A grounding apparatus (200) includes at least one conductive member (20), a sliding mechanism (30) and a flexible printed circuit board (40). The sliding mechanism is conductive and electrically connected to the conductive member. The flexible printed circuit board includes a conductive layer (421) and a grounding end (4231), the conductive layer and the grounding end are electrically connected to the sliding mechanism.

Abstract: A metallic cover of a miniaturization module includes a substrate, a SMD chip unit and a metallic cover, the metallic cover embracing the SMD chip unit and having at least one sizing hole and a plurality of venting holes, the venting holes being disposed around the sizing hole, and the sizing hole and the venting holes being positioned above the SMD chip unit so that glue portions fill up slits between the metallic cover and the SMD chip unit. The venting holes stop the glue portion from running over the second chip unit. The glue-filled slits between the top lid and the SMD chip unit provides a strong support to prevent any deformation of the metallic cover when the metallic cover is tested and processed.

Abstract: A flat panel display. A panel module and a first securing assembly. A shield has a longitudinal first opening at a side thereof, extending along a first direction. A connection member has a recess extending along the first direction and a second opening extending along a second direction. A panel module is disposed in the recess. The first securing assembly is fastened through the first and second openings and movable with respect to the first and second openings to secure the shield and the connection member.

Abstract: A shield for an integrated circuit comprising an upper wall and a side wall assembly. The upper wall includes a top surface, a bottom surface and a perimeter. The side wall assembly depends from the perimeter of the upper wall. The side wall assembly has a proximal end, a distal end, an inner surface and an outer surface. The distal end defines a lower edge. At least a portion of the side wall assembly includes a plurality of surface variations along a length thereof, to, in turn, define a lower edge of the side wall assembly having a non-linear configuration. Such a non-linear configuration increases the rigidity of the shield.

Abstract: A portable electronic apparatus comprises a housing, a circuit board, a heat-conduction structure and a heat-dissipation structure. The circuit board is disposed in the housing and comprises a substrate and a first electronic device, wherein the first electronic device is disposed on the substrate. The heat-conduction structure is disposed on the circuit board, and dissipates heat from the first electronic device. The heat-dissipation structure is disposed on the housing and connected to the heat-conduction structure, wherein the heat passes the heat-conduction structure and the heat-dissipation structure, and is dissipated out of the housing.

Abstract: A component accommodating case for accommodating an electronic component that is connected to a wire includes a cutout portion that passes the wire therethrough, an external case that covers at least a surface where the cutout portion is disposed, and a plate member that covers the cutout portion and that is mounted to the external case.

Abstract: Disclosed are methods and apparatus for improving the resiliency and airflow through a honeycomb air vent filter while providing EMI shielding. In one embodiment, the honeycomb can be manufactured from a dielectric (e.g., plastic) substrate to provide improved resistance to deformation as compared to conventional aluminum honeycomb. The dielectric honeycomb substrate is metallized to provide EMI shielding capability. The metallized honeycomb substrate is cut slightly oversize to fit an opening in an electronic enclosure, which results in elastic deformation of resilient perimeter spring fingers that are used to hold the metallized dielectric honeycomb in place and provide electrical conductivity between the metallized dielectric substrate and the enclosure, thereby eliminating the use of a frame. In another embodiment, additional conductive layers can be added to the metallized dielectric honeycomb.