Abstract: According to various aspects, exemplary embodiments are provided of electrical contacts, which may be used for establishing an electrical pathway between first and second electrically conductive surfaces. In an exemplary embodiment, an electrical contact may include an electrically conductive base member and at least one resilient contact member. The at least one resilient contact member may have a configuration at least partially defined by a laser cut in or into the electrically conductive base member. The at least one resilient contact member may also be formed so as to protrude outwardly from the electrically conductive base member.

Abstract: According to various aspects, exemplary embodiments are provided of electrical contacts, which may be used for establishing an electrical pathway between first and second electrically conductive surfaces. In an exemplary embodiment, an electrical contact may include an electrically conductive base member and at least one resilient contact member. The at least one resilient contact member may have a configuration at least partially defined by a laser cut in or into the electrically conductive base member. The at least one resilient contact member may also be formed so as to protrude outwardly from the electrically conductive base member.

Abstract: A shielding apparatus is disclosed suitable for use in providing electromagnetic interference shielding for an electrical component on a substrate. The shielding apparatus includes a frame that is at least partially drawn in construction and is configured for installation to the substrate. Side walls of the frame generally surround the electrical component, and a cover is attachable to the frame for substantially covering the electrical component. The cover includes an upper surface having an inverted embossment formed therein, and a cover member extending generally downwardly from the upper surface adjacent the inverted embossment. The inverted embossment and cover member define a guide for guiding and receiving at least part of the frame into the guide when the cover is attached to the frame. The guide is configured to help facilitate and generally hold the cover in electrical contact with the frame when the cover is attached to the frame.

Abstract: According to various aspects of the present disclosure, exemplary embodiments are of assemblies capable of providing board level EMI shielding and heat dissipation of one or more electrical components. Other aspects relate to components of such assemblies. Further aspects relate to methods of using EMI shielding and thermal management assemblies. Additional aspects relate to methods of making EMI shielding and thermal management assemblies, and methods of making the components thereof.

Abstract: Various embodiments provide EMI shields for substrates having at least one electrical component disposed thereon. In one embodiment, an EMI shield generally includes a cover having first and second protrusions and at least one electrically-conductive member disposed along an inner side of the cover. The electrically-conductive member may be compressed generally between the substrate and the cover when the substrate is captured generally between the electrically-conductive member and the first protrusion. In addition, a compressive clamping force may be generated by the engagement of the first protrusion with the substrate and the compression of the electrically-conductive member. This compressive clamping force may mechanically retain the cover to the substrate, and also compress the electrically-conductive member against at least one electrically-conductive surface disposed on the substrate, to establish electrical conductivity therebetween that is sufficient for EMI shielding performance.

Abstract: A shielding apparatus is disclosed suitable for use in providing electromagnetic interference shielding for an electrical component on a substrate. The shielding apparatus includes a frame that is at least partially drawn in construction and is configured for installation to the substrate. Side walls of the frame generally surround the electrical component, and a cover is attachable to the frame for substantially covering the electrical component. The cover includes an upper surface having an inverted embossment formed therein, and a cover member extending generally downwardly from the upper surface adjacent the inverted embossment. The inverted embossment and cover member define a guide for guiding and receiving at least part of the frame into the guide when the cover is attached to the frame. The guide is configured to help facilitate and generally hold the cover in electrical contact with the frame when the cover is attached to the frame.

Abstract: Various embodiments provide EMI shields for substrates having at least one electrical component disposed thereon. In one embodiment, an EMI shield generally includes a cover having first and second protrusions and at least one electrically-conductive member disposed along an inner side of the cover. The electrically-conductive member may be compressed generally between the substrate and the cover when the substrate is captured generally between the electrically-conductive member and the first protrusion. In addition, a compressive clamping force may be generated by the engagement of the first protrusion with the substrate and the compression of the electrically-conductive member. This compressive clamping force may mechanically retain the cover to the substrate, and also compress the electrically-conductive member against at least one electrically-conductive surface disposed on the substrate, to establish electrical conductivity therebetween that is sufficient for EMI shielding performance.

Abstract: According to various aspects of the present disclosure, exemplary embodiments are provided of EMI shielding apparatus capable of providing board level EMI shielding for one or more electronic components while also providing dissipation of heat generated by the one or more electronic components. In one particular embodiment, an apparatus generally includes a board level shield having at least one resiliently compressible EMI gasket disposed along at least a portion of the board level shield. At least one thermally-conductive compliant material is disposed relative to an inner surface of the board level shield and to the one or more electrical components. The at least one thermally-conductive material can form a thermally-conducting heat path from the one or more electrical components to the board level shield.