Abstract: Leakage of electromagnetic noise from a wiring substrate is suppressed. A wiring substrate (1) includes a multilayered wiring layer, a structure (8) of a conductor, and an electromagnetic wave absorber (5). An electronic component (2) which is an example of an electromagnetic noise generation source is mounted on the wiring substrate (1). The electronic component (2) has a high-frequency circuit. The structure (8) is formed using the multilayered wiring layer, and is arranged so as to enclose the electronic component (2) in plan view with an opening (4) in the enclosure. The electromagnetic wave absorber (5) is arranged so as to cover the opening (4).

Abstract: This is directed to connecting two or more elements using an intermediate element constructed from a material that changes between states. An electronic device can include one or more components constructed by connecting several elements. To provide a connection having a reduced or small size or cross-section and construct a component having high tolerances, a material can be provided in a first state in which it flows between the elements before changing to a second state in which it adheres to the elements and provides a structurally sound connection. For example, a plastic can be molded between the elements. As another example, a composite material can be brazed between the elements. In some cases, internal surfaces of the elements can include one or more features for enhancing a bond between the elements and the material providing the interface between the elements.

Abstract: An electrical connector assembly includes a cage having an upper wall, a lower wall, and side walls that extend from the upper wall to the lower wall. The side walls have exterior sides. The cage includes an interior cavity and a divider that extends between the side walls and divides the interior cavity into at least two internal compartments. The cage includes a front end that is open to the internal compartments. The side walls have front edges at the front end. The internal compartments are configured to receive pluggable modules therein through the front end. An electromagnetic interference (EMI) cover is mounted to the divider such that the EMI cover is engaged with and electrically connected to the divider. The EMI cover includes a flap that wraps around the front edge of a corresponding side wall. The flap overlaps and engages the exterior side of the corresponding side wall.

Abstract: An electromagnetic interference shield enclosure with an extended edge defining a sleeve, the enclosure and sleeve having an outer protective layer and an inner shielding layer to shield electronic devices from electromagnetic interference. The outer layer and inner layer may be transparent to view the electronic device. A magnet system may be provided to allow the device to be operated while in the enclosure. The auxiliary cable with filtering mechanisms may be provided inside the sleeve to allow access and transfer of data from the electronic device while still in the enclosure.

Abstract: In general, in one aspect, the disclosure describes a resonance restricting material in communication with a bypass line of a cable television tap. The bypass line generates resonances at a defined frequency in response to RF parameters in the tap and the resonances increase insertion losses at the defined frequency and precludes bandwidth of the tap being increased above the defined frequency. The resonance restricting material may attenuate the resonances generated by the bypass line at the defined frequency (e.g., approximately 1.2 GHz) and reduce insertion losses at the defined frequency and enable the bandwidth of the tap to be increased (e.g., from 1.0 GHz to 1.8 GHz).

Abstract: An electromagnetic interference shield having a main enclosure and at least one auxiliary enclosure. The auxiliary enclosure in the main enclosure and an interior that is continuous with each other. The auxiliary enclosure is made of elastic Faraday material. The outer layer and inner layer may be transparent to view the electronic device. An auxiliary cable with filtering mechanisms may be provided inside a sleeve to allow access and transfer of data from the electronic device while still in the main enclosure.

Abstract: In certain embodiments, a mounting apparatus includes one or more standoffs adapted to maintain two panels at a spaced apart distance from one another. The standoff includes a first end having a first threaded fastening member and a second end having a cavity in which a torque restraining member is disposed. The torque restraining member is coupled to a second threaded fastening member. The relative sizes of the torque restraining member and the cavity allow movement of the torque restraining member within the cavity.

Abstract: A receptacle for supporting a transponder on a support structure includes a housing having a first housing portion securable to the transponder and a second housing portion securable to the support structure. The first housing portion is pivotally secured to the second housing portion. The first housing portion and second housing portion include a shield for attenuating the transmission of electromagnetic signals. The first housing portion has a first position wherein the first housing portion and second housing portion form a chamber for enclosing the transponder and restricting the transmission of electromagnetic signals from the chamber. The first housing portion has a second position wherein the first housing portion and the transponder are displaced from the second housing portion thereby opening the chamber and exposing the transponder to permit the transmission of electromagnetic signals to and from the transponder.

Abstract: According to an embodiment, there is provided a leak preventing device of electromagnetic wave, including a metal pipe and a magnetic material part. The metal pipe is arranged to surround a periphery of a first electric power transmission device. The first electric power transmission device wirelessly transmits electric power to a second electric power transmission device via an electromagnetic wave. The second electric power transmission device is opposed to the first electric power transmission device. An opening is formed on the metal pipe along a circumferential direction of the metal pipe. The magnetic material part is arranged within the metal pipe along the circumferential direction the metal pipe.

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: Certain embodiments herein are described to protect electronic equipment from electromagnetic interference (EMI). A cabinet and one or more associated input/output panels may be configured to block EMI from entering the interior of the cabinet where electronic equipment may be stored. The input/output panel may include a printed circuit board, an input/output header, and an input/output connector that may be configured to pass electronic signals transmitted via cables, for example, from one side of the input/output panel to another without accompanying EMI. Certain materials and components included on the printed circuit board may assist in deflecting or absorbing EMI so that it does not enter the cabinet. For example, one or more filters may also be mounted onto the printed circuit board to further filter out unwanted EMI.

Abstract: A plastic shield for a cable and insulator is described having a center section for covering the insulator. The center section has an opening at both its ends for the cable. Proximate each opening is a pivotable and bendable flange, where the flange pivots at one end of the flange and freely bends. An arm extends from each of the cable openings of the center section, and each arm covers the cable exiting the center section. Each arm is pivotally attached to the other end of the associated flange. The flange allows its associated arm to be moved over a wide range of horizontal and vertical angles (e.g., up to 45 degrees) and allows the arms to have a variable horizontal and vertical offset relative to the center line of the center section and insulator to accommodate a cable that is offset from the center line.

Abstract: In order to prevent EMI leakage from various openings formed in module-receiving receptacles, a flexible, conductive shield member is provided. The shield member may have multiple layers but includes at least a conductive layer and an adhesive layer. The adhesive layer permits the shield member to be applied to an exterior surface of the receptacle and the shield member is further configured and dimensioned such that it fits entirely over the opening with a sufficient marginal extent to remain in place on the receptacle and provide its EMI barrier function effectively. communicating with the interior portion, and the bottom is configured to be joined to a circuit board. An EMI shield member is provided along the bottom of the cage and extends completely around the bottom opening to be held between the cage and a circuit board. The EMI shield member forms a shielded interface completely around the perimeter of the bottom opening.

Abstract: Certain embodiments of the present invention provide a duct for a shielded wireway system. The duct includes a bottom wall, two sidewalls extending from the bottom wall, and a plurality of fingers extending from each of the sidewalls. Adjacent fingers are connected by at least one bridging component. The bottom wall, the sidewalls, and a portion of the fingers, including the bridging component, are shielded.

Abstract: There is provided a shield-can, including a plate including a circular through-hole formed therein for exposing a lens part, a plurality of side walls extended from edges of the plate and forming an inner space together with the plate, an anti-reflection layer stacked on an upper surface of the plate, and an insulating layer stacked on an inner surface of any one side wall of the plurality of side walls and at edges of inner surfaces of side walls neighboring the any one side wall, wherein the insulating layer has a band shape and is stacked on lower end portions of the inner surfaces of the side walls.

Abstract: A cabinet includes a chassis and an electromagnetic interference (EMI) shielding apparatus. The shielding apparatus includes a bracket installed to a first end of the chassis, a shaft rotatably installed in the bracket, and a shielding member reeled about the shaft. The shielding member includes a first end fixed to the shaft, and a second end opposite to the first end and forming a holder. A second end of the chassis forms a latch opposite to the bracket for engaging with the holder. The shielding member is made of EMI shielding material, and the shielding member is wound on or let out from the shaft as the shaft rotates.

Abstract: An electromagnetically shielded enclosure with operable interfaces that is portable and lightweight. The electromagnetically shielded enclosure has operable interfaces including a tactile interface through the shielding material and optionally a shielded tactile window for viewing of a secured electronic device and also for operating the secured electronic device should it have a touch screen. An internal frame is optionally provided that prevents conductive interference of a secured electronic device touch screen by the shielded tactile window. An input/output assembly is further provided to allow signals and power to be brought in or out of the enclosure to connect with the secured electronic device without compromising radio silence.

Abstract: A conformal electro-magnetic (EM) shield and a method of applying such a shield are provided herein as well as variations thereof. Variations include, but are not limited to, frequency-selective shielding, shields containing active and/or passive electronic components, and strippable shields that can easily be applied to and removed from underlying components. Variations of a shield structure include at least an insulating layer between the underling component and the shield, and shielding and/or capping layers disposed over the insulating layer.

Abstract: A cover lay film includes an electromagnetic wave shielding layer formed of a conductive material, a resistor layer having a greater surface resistance than the electromagnetic wave shielding layer, and an insulating resin layer provided between the electromagnetic wave shielding layer and the resistor layer, wherein a plurality of openings penetrating in a thickness direction of the electromagnetic wave shielding layer are provided in the electromagnetic wave shielding layer.

Abstract: A shielding device and an electronic device having the same are disclosed. The shielding device is disposed on a circuit board for covering an electronic component. The shielding device comprises a first case and a second case. The first case comprises a first limiting structure and a second limiting structure. The second case is mounted on the circuit board and includes a frame and a first slot. The frame forms an opening. When the first case is connected with the second case, the second limiting structure can move along a first direction to a bottom of the frame and is prevented from moving along a second direction. The first slot corresponds to the first limiting structure to allow the first limiting structure to be inserted into the first slot along the first direction and the first limiting structure is prevented from moving along the second direction.

Abstract: In general, in one aspect, the disclosure describes a resonance restricting material in communication with a bypass line of a cable television tap. The bypass line generates resonances at a defined frequency in response to RF parameters in the tap and the resonances increase insertion losses at the defined frequency and precludes bandwidth of the tap being increased above the defined frequency. The resonance restricting material may attenuate the resonances generated by the bypass line at the defined frequency (e.g., approximately 1.2 GHz) and reduce insertion losses at the defined frequency and enable the bandwidth of the tap to be increased (e.g., from 1.0 GHz to 1.5 GHz).

Abstract: An electromagnetically shielded enclosure is disclosed. One such system includes a continuously welded shell having a top, a bottom, and a plurality of side walls cooperating to enclose an interior volume, the interior volume sized to receive electronic equipment and allow human entry. The enclosure is constructed from electromagnetically conductive materials and includes continuous welds along seams joining each material. The enclosure includes a sally port located within the enclosure. The sally port includes a first door in one of the plurality of side walls and constructed from electromagnetically conductive materials. The sally port also includes a second door constructed from electromagnetically conductive materials. The sally port defines a secondary interior volume within the enclosure sized to allow human entry through either the first or second door.

Abstract: Systems, apparatuses, and methods are provided for protecting electronic devices from electromagnetic threats. Exemplary systems, apparatuses, and methods may include utilizing meta-material, wire grids including specially coated fibers, carrying cases including electromagnetic protective liners or inserts, enclosures for containing electronic devices and protecting such devices from electromagnetic threats, connection members for connecting panels of an enclosure, soft-sided enclosures such as tents or rooms for protecting electronic devices contained therein, low-profile meta-material gaskets for electromagnetically protection openings in an enclosure, among other things.

Abstract: A filler panel for an electronics shelf is provided. The electronics shelf includes a number of slots each configured to receive an electronic device. The filler panel includes a non-conductive main body that includes a front wall, a side wall, and a back wall. The front wall and back wall are configured to fill a width of a slot of the electronics shelf and the side wall is configured to extend into a depth of the slot. The filler panel also includes an electromagnetic shielding portion made of a conductive material and coupled to the main body. Furthermore, the main body includes one or more cable clips each configured to retain one or more cables within the main body.

Abstract: A device enclosing a volume shielded from certain levels of sound, light and electromagnetic radiation, such device that prevents electromagnetic communications and recording devices from transmitting and receiving communications from outside of the devices protected environment while remaining mobile and ungrounded.

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 electronic device enclosure includes a first cover, a second cover located below the first cover, and a bracket for receiving a disk drive. The second cover defining a hole and comprising a shielding panel covering the hole. The shielding panel is deformable to expose the hole, for the disk drive inserting into or being removed out of the bracket.

Abstract: In one general embodiment, a product includes a metal panel having a main portion and a knockout portion formed therein and detachably coupled thereto, wherein the knockout portion includes at least one member insertable in one or more apertures in the main portion for allowing re-coupling the knockout portion to the main portion after detachment therefrom. In another general embodiment, a product includes a metal panel having a main portion and a knockout portion formed therein and detachably coupled thereto, wherein the main portion includes at least one member insertable in one or more apertures in the knockout portion for allowing re-coupling the knockout portion to the main portion after detachment therefrom.

Abstract: Certain embodiments herein are described to protect electronic equipment from electromagnetic interference (EMI). A cabinet and one or more associated input/output panels may be configured to block EMI from entering the interior of the cabinet where electronic equipment may be stored. The input/output panel may include a printed circuit board, an input/output header, and an input/output connector that may be configured to pass electronic signals transmitted via cables, for example, from one side of the input/output panel to another without accompanying EMI. Certain materials and components included on the printed circuit board may assist in deflecting or absorbing EMI so that it does not enter the cabinet. For example, one or more filters may also be mounted onto the printed circuit board to further filter out unwanted EMI.

Abstract: A filler panel for blocking an unused portion of a communications system. That filler panel may include an electromagnetic shielding base and a base cover removably coupled to the electromagnetic shielding base. The filler panel may also include an air dam composed substantially of low-cost, nonconductive material coupled to either the electromagnetic shielding base or to the base cover through the electromagnetic shielding base.

Abstract: An electromagnetically shielded enclosure that is portable and lightweight that can be used for applications such as testing and security. The electromagnetically shielded enclosure has a novel entry seal that eliminates the electromagnetic leakage that is common around the entry areas of such enclosures. The entry seal has an outer door with a perimeter magnetic material, an outer door magnetic closure that aligns with the outer door perimeter magnetic material, an inner door with a perimeter magnetic material, and an inner door magnetic closure that aligns with the inner door perimeter magnetic material.

Abstract: A Faraday cage includes a casing structured by a first housing having a first outer cover made of a conductive material, and a first inner cover made of a conductive material, which is accommodated in the first outer cover and is electrically insulated from the first outer cover, and a second housing having a second outer cover made of a conductive material, which fits the first outer cover, and a second inner cover made of a conductive material, which is accommodated in the second outer cover and is electrically insulated from the second outer cover, the first and second housings being separable from each other; and a filter cartridge disposed inside the casing configured to be separable into two pieces, which accommodates therein a first filter for collecting fine particles sucked in from the outside the casing.

Abstract: According to one embodiment, an electronic apparatus is provided with a first housing that comprises a first ground and a second housing comprising a second ground. The electronic apparatus further comprises (i) a plurality of first protrusions on an inner surface of the first housing, at least one of the plurality of first protrusions comprising, on a peripheral surface thereof, a first conductor electrically connected to the first ground; (ii) a hinge pivotably connecting the first housing and the second housing; and (iii) a cable extending between inside the first housing and inside the second housing through the hinge, supported by the plurality of first protrusions, electrically connected to the first conductor in the first housing, and electrically connected to the second ground in the second housing, the cable electrically connecting the first ground and the second ground.

Abstract: A method of blocking electro-magnetic interference (EMI) in an electric machine having a housing including an interior portion, an opening leading to the interior portion, and an enclosure positioned about the opening, includes positioning an EMI blocking member in the enclosure across the opening. The EMI blocking member includes an insulating layer having a first surface and a second surface. An EMI shield member is positioned on one of the first and second surfaces. The EMI shield member includes a surface formed from an electrically conductive material that substantially covers the one of the first and second surfaces. The EMI shield member is grounded to the housing. The EMI shield member is configured and disposed to block EMI release from the housing via the enclosure.

Abstract: A shielding assembly comprises a pair of covers. Each cover comprises a body, an overlapping portion, and a plurality of sidewalls. The body comprises a first engaging portion, a second engaging portion and a slot defined at one end of the second engaging portion neighboring to the first engaging portion. The overlapping portion comprises a joint portion extending from the first engaging portion, a extending portion extending from the joint portion and parallel to the body, and a latching portion shaped on one end of the extending portion neighboring to the second engaging portion. The extending portion of one of the covers overlaps the second engaging portion of another one of the covers, and the latching portion of one of the covers is latched in the slot in another one of the covers.

Abstract: A shield for a portable electronic device includes a pouch with an opening sized to accommodate the portable device and a flap. The pouch includes shielding material inside the pouch and on the flap. When the flap is closed, the shielding material inside the pouch and the shielding material on the flap together substantially surround the device, thereby substantially preventing RF signals emitted by the device from leaving the shield, and further substantially preventing RF signals impinging on the shield from outside from reaching the device. When the flap is open, the shielding material inside the pouch and the shielding material on the flap leave a gap, thereby allowing RF signals emitted by the device to leave the shield, and further allowing RF signals impinging on the shield from outside to reach the device. The shield further includes a compartment for a charger and one or more power cord adapters.

Abstract: A filler panel for an electronics shelf is provided. The electronics shelf includes a plurality of slots each configured to receive an electronic device. The filler panel includes a non-conductive main body that includes a front wall, a back wall, a top wall, a bottom wall and a single side wall. The front wall, back wall, top wall and bottom wall are configured to fill a width of a slot of the electronics shelf. The side wall is configured to extend into a depth of the slot, The filler panel also includes an electromagnetic shielding portion comprising a conductive material that is coupled to the main body. The main body further includes one or more vents positioned in each of the top wall and the bottom wall, the vents configured to allow air flow though the main body.

Abstract: An electrical connector assembly includes a cage having an upper wall, a lower wall, and side walls that extend from the upper wall to the lower wall. The side walls have exterior sides. The cage includes an interior cavity and a divider that extends between the side walls and divides the interior cavity into at least two internal compartments. The cage includes a front end that is open to the internal compartments. The side walls have front edges at the front end. The internal compartments are configured to receive pluggable modules therein through the front end. An electromagnetic interference (EMI) cover is mounted to the divider such that the EMI cover is engaged with and electrically connected to the divider. The EMI cover includes a flap that wraps around the front edge of a corresponding side wall. The flap overlaps and engages the exterior side of the corresponding side wall.

Abstract: A wire fixing member (10) to be fixed to an unillustrated case housing a device by fixing a shield shell (40) to the case includes a housing (20) to be held in the shield shell (40), wires (W) pulled out through the housing (20), a housing projection (28) located at a part of the housing (20) where the wires W are pulled out and formed to project along the wires (W), and an adhesive tape (T) for integrally fixing the wires (W) and the housing projection (28) by covering both the wires (W) and the housing projection (28) and adhering to the wires (W) and the housing projection (28).

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: Modular jewelry frames that provide a setting for ornamental items such as gems and crystals are presented. Some contemplated jewelry frames comprise at least one saddle that is configured to releasably couple with at least one strut. Jewelry boxes comprising conductive material and configured to provide a Faraday shield around their content are also provided.

Abstract: An RF shield formed of RF opaque material that permits access to components on a printed circuit board is described. The RF shield can include a first portion attached to the PCB and a removable top portion attached to the first portion at an interface. The top portion is removed from the first portion to expose the components on the PCB. In one aspect of the described embodiment, the top portion is peeled away from the first portion. The components are enclosed within the RF shield after the removal of the top portion by attaching and sealing another top portion to the first portion at the interface by, for example, laser attaching the first portion and the other top portion at the interface.

Abstract: A shield can fixing device of an electronic device is provided. The fixing device includes a base having a specific length and attached to a shield can fixing line of the printed circuit board, a pair of panels, each of which is bent upwards and formed on the base to have a slit between them for inserting a lateral portion of the shield can, at least one opening portion formed in any one or both of the panels, and an insertion protrusion formed in the lateral portion located in a corresponding position to the opening portion in a protruding manner to ensure a fixing force of the shield can. The shield can fixing device is fixed by inserting a lateral portion of a shield can between double walls.

Abstract: A one-piece board level shielding element with a top cover peel panel is secured to a circuit board to shield and provide access to a shielded component. The shielding element is formed with a top having a peel line to facilitate removal of the peel panel with a peel tool. Once the repair is completed, a new cover is put on to the remaining side-walls to reestablish the shielding. The shield top cover is formed with a peel tool insertion slot and an adjacent peel start slot. The peel panel is removed by a peel tool having a peel hook mounted to a cylindrical peel key that is inserted into the insertion slot and hooks the cover at the peel start slot. Upon rotating the peel key away from the peel start slot, the peel panel is easily removed. A fixture plate may be used to support the peel tool and assist in removal of the peel panel.

Abstract: An electromagnetic interference (EMI) shielding apparatus generally includes a lid and a framework. The lid includes a top portion having at least one projection joining part thereon. The at least one projection joining part has a peripheral contour. The framework includes a top portion and a lateral side extending downward from the top portion. The top portion includes at least one joining opening having a peripheral contour coinciding with the peripheral contour of the at least one projection joining part of the lid. Accordingly, the at least one projection joining part of the lid is engagable with the at least one joining opening of the framework via an interference fit.

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: A housing for an electromagnetic-radiation-emitting optoelectronic component. Exterior side faces of the housing are at least partly provided with a screening layer suitable for screening an electromagnetic radiation. A lateral emission of electromagnetic radiation from the housing, which is disadvantageous for many applications, is thereby intended to be avoided. An electromagnetic-radiation-emitting component having a housing of this type and a method for producing a corresponding housing or component are additionally described.

Abstract: Apparatus and methods for reducing cross talk between electrical ports are described. An electronic device comprises a housing for electronic circuitry and has a plurality of ports for connecting electrical devices. Each port includes a connector connected by at least one electrical connection to the electronic circuitry. A connector shield is arranged to provide an electrically conductive loop around which an induced electrical current can flow to reduce cross-talk between ports. A shielding can is part of the connector shield and includes a body formed of a folded sheet of electrically conductive material and an electrical contact for electrically connecting the body to a connector. A face of the body defines a first aperture shaped to receive the connector so that the shielding can may be arranged about the connector to form a part of the electrically conductive loop.

Abstract: Provided is a shield for shielding electromagnetic waves, which can easily perform maintenance and repair of circuit elements without separating the shield from a circuit board even after the shield is fixed on the circuit board. In a shield for shielding electromagnetic waves formed in the shape of a box having an opened bottom so as to cover circuit elements disposed on a circuit board, the shield is composed of a shield cover corresponding to a top surface thereof and a shield wall corresponding to a sidewall thereof, and the shield cover includes a frame and a cut-away part cut away at an inside of the frame. The cut-away part opens/closes the inside of the frame of the shield cover as the other side of the cut-away part is rotated using one side of the cut-away part as a rotational axis.

Abstract: An electronics enclosure system includes a conductive polymer which includes electromagnetic interference shielding properties and produced to enhancing SE, reducing material costs, and improving thermal flow. “Parallel” hex shaped EMI waveguides placed in a honeycomb pattern are stacked in a staggered fashion with similar hex shaped EMI waveguides placed in a honeycomb pattern. The parallel hex shaped EMI waveguides extend into the interior and/or “cuts” into one or more sides of a an electronics enclosure. An EMI shielding polymer material, such as a coated polymer, or a nickel-fiber carbon polymer such as Primere® providing sufficient EMI shielding (or alternately a material that can be formed such as Superplastic Zinc) is used, having the result that the need for shielding gaskets are reduced, material usage is decreased, and thermal flow is greatly improved.