Abstract: Exemplary embodiments are disclosed of thermal management assemblies suitable for use (e.g., configured for heat spreading, etc.) with transceivers (e.g., small form-factor pluggable (SFP) transceivers, SFP+ transceivers, quad small form-factor pluggable (QSFP) transceivers QSFP+ transceivers, XFP transceivers, etc.) and other devices (e.g., memory card readers, etc.). In exemplary embodiments, a thermal management assembly comprises at least one flexible heat spreading material (e.g., a single graphite sheet, multiple graphite sheets, etc.) including portions wrapped (e.g., in different non-parallel directions, in parallel directions, etc.) around corresponding portions of a part, which may be configured to be coupled to and/or along a side of a device housing. The at least one flexible heat spreading material may be operable for defining at least a portion of a thermally-conductive heat path around the corresponding portions of the part.

Abstract: According to various aspects, exemplary embodiments are disclosed of frames for shielding assemblies. Exemplary embodiments are also disclosed of shielding assemblies including such frames. In exemplary embodiments, a frame for a board level shield (BLS) may include portions alignable with and solderable to solder ball pads along a printed circuit board. A cover may be releasably attachable to, detachable from, and reattachable to the frame.

Abstract: According to various aspects, exemplary embodiments are disclosed of frames for shielding assemblies. Exemplary embodiments are also disclosed of shielding assemblies including such frames. In exemplary embodiments, a frame for a board level shield (BLS) may include portions alignable with and solderable to solder ball pads along a printed circuit board. A cover may be releasably attachable to, detachable from, and reattachable to the frame.

Abstract: Exemplary embodiments are disclosed of thermal management assemblies suitable for use (e.g., configured for heat spreading, etc.) with transceivers (e.g., small form-factor pluggable (SFP) transceivers, SFP+ transceivers, quad small form-factor pluggable (QSFP) transceivers QSFP+ transceivers, XFP transceivers, etc.) and other devices (e.g., memory card readers, etc.). In exemplary embodiments, a thermal management assembly comprises at least one flexible heat spreading material (e.g., a single graphite sheet, multiple graphite sheets, etc.) including portions wrapped (e.g., in different non-parallel directions, in parallel directions, etc.) around corresponding portions of a part, which may be configured to be coupled to and/or along a side of a device housing. The at least one flexible heat spreading material may be operable for defining at least a portion of a thermally-conductive heat path around the corresponding portions of the part.

Abstract: A multilayer board level shield includes an electrically-conductive shielding layer disposed between inner and outer dielectric layers. The multilayer board level shield may have an overall thickness of about 25 microns or less. The multilayer board level shield may have sufficient flexibility to be reconfigurable generally over one or more components on a substrate to thereby provide board level shielding for the one or more components. One or more dielectric joints may be defined between the printed circuit board and the outer dielectric layer that attach the multilayer board level shield to the printed circuit board.

Abstract: According to various aspects, exemplary embodiments are disclosed of soft and/or flexible electromagnetic interference (EMI) shields. In an exemplary embodiment, a shield is suitable for use in providing EMI shielding for one or more components on a substrate. The shield generally includes one or more contacts configured for installation on the substrate and an electrically-conductive cover configured for installation on the contact(s).

Abstract: A shielding assembly is disclosed, the assembly including at least a board level shield and a heat sink. The assembly may include a board level shield that includes both a lid and a fence, and may also include a thermal interface material, where the assembly may be mounted on a printed circuit board to provide both EMI shielding and thermal management of heat-generating electronic components or heat sources on the circuit board. The heat sink includes at least one pin, and the shield includes at least one complementary perforation relative to the pin, such that an assembled device of the disclosure provides both EMI shielding and thermal management while permitting the transfer of thermal energy via the heat sink pin through the board level shield perforation.

Abstract: According to various aspects, disclosed are exemplary embodiments of a multilayered thin film board level shield and exemplary embodiments of a system in package that comprise a a multilayer flexible board level shield. Also disclosed are exemplary embodiments of methods relating to making multilayer thin film board level shields. Additional exemplary embodiments are disclosed of systems and methods of applying board level shielding.

Abstract: A shielding assembly is disclosed, the assembly including at least a board level shield and a heat sink. The assembly may include a board level shield that includes both a lid and a fence, and may also include a thermal interface material, where the assembly may be mounted on a printed circuit board to provide both EMI shielding and thermal management of heat-generating electronic components or heat sources on the circuit board. The heat sink includes at least one pin, and the shield includes at least one complementary perforation relative to the pin, such that an assembled device of the disclosure provides both EMI shielding and thermal management while permitting the transfer of thermal energy via the heat sink pin through the board level shield perforation.

Abstract: According to various aspects, exemplary embodiments are disclosed of soft and/or flexible electromagnetic interference (EMI) shields. In an exemplary embodiment, a shield is suitable for use in providing EMI shielding for one or more components on a substrate. The shield generally includes one or more contacts configured for installation on the substrate and an electrically-conductive cover configured for installation on the contact(s).

Abstract: According to various aspects, exemplary embodiments are disclosed of board level shields that include film and/or foil (e.g., electrically-conductive plastic film, metallized or metal plated film, metal foil, reinforced foil, poly-foil, etc.) covers or lids. Also disclosed are exemplary embodiments of methods relating to making EMI shielding apparatus or assemblies. Additionally, exemplary embodiments are disclosed of methods relating to providing shielding for one or more components on a substrate.

Abstract: According to various aspects, exemplary embodiments are disclosed of board level shields that include film and/or foil (e.g., electrically-conductive plastic film, metallized or metal plated film, metal foil, reinforced foil, poly-foil, etc.) covers or lids. Also disclosed are exemplary embodiments of methods relating to making EMI shielding apparatus or assemblies. Additionally, exemplary embodiments are disclosed of methods relating to providing shielding for one or more components on a substrate.

Abstract: According to various aspects, exemplary embodiments are disclosed of EMI shields with increased under-shield space and/or greater component clearance for one or more components under the shield. In an exemplary embodiment, a shield generally includes one or more recessed portions along an inner surface of the cover. Dielectric material is along the inner surface of the cover within at least the one or more recessed portions. The one or more recessed portions may provide increased under-shield space and/or greater clearance for one or more components under the shield. The dielectric material may inhibit the one or more recessed portions of the shield from directly contacting and electrically shorting one or more components when the one or more components are under the shield. Also disclosed are exemplary embodiments of methods relating to making EMI shields and methods relating to providing shielding for one or more components on a substrate.

Abstract: According to various aspects, exemplary embodiments are disclosed of EMI shields with increased under-shield space and/or greater component clearance for one or more components under the shield. In an exemplary embodiment, a shield generally includes one or more recessed portions along an inner surface of the cover. Dielectric material is along the inner surface of the cover within at least the one or more recessed portions. The one or more recessed portions may provide increased under-shield space and/or greater clearance for one or more components under the shield. The dielectric material may inhibit the one or more recessed portions of the shield from directly contacting and electrically shorting one or more components when the one or more components are under the shield. Also disclosed are exemplary embodiments of methods relating to making EMI shields and methods relating to providing shielding for one or more components on a substrate.

Abstract: Disclosed herein are exemplary embodiments of an EMI shielding apparatus. A frame of the apparatus has a sidewall and an inwardly extending lip defining at least one opening along an upper portion of the frame. A reusable cover is attachable to the frame for at least substantially covering opening(s) of the frame. A first border portion of the cover includes one or more sliding members. A second border portion of the cover includes one or more stops. The sliding member(s) and stop(s) are configured to abut, in generally opposed directions, one or more lip edges generally facing the opening(s) when the cover is attached to the frame. The shielding apparatus is operable for shielding the component(s) on the substrate that are within an interior cooperatively defined by the frame and the cover.

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: According to various aspects, exemplary embodiments are provided of clips that may be compatible with surface mount technology. The clips may be surface mountable to a substrate for allowing repeated releasable attachment and detachment of a shielding structure thereto. In one exemplary embodiment, a clip generally includes a base member having generally opposed first and second side edge portions. Two or more arms extend generally upwardly in a first direction from the base member. The clip also includes a generally flat pick-up surface configured to enable the clip to be picked up by a head associated with pick-and-place equipment.