Abstract: An electronic package incorporating a heat-generating element which is thermally coupled to a heat-sinking member, through the utilization of a predetermined thermally conductive material, and wherein all of these components are placed in compression during package operation so as to resultingly improve the thermal performance of the electronic package. A method is set forth of improving the thermal performance of an electronic package through the intermediary of compressive forces being generated between the package components during package operation.

Abstract: An electronic package incorporating a heat-generating element which is thermally coupled to a heat-sinking member, through the utilization of a predetermined thermally conductive material, and wherein all of these components are placed in compression during package operation so as to resultingly improve the thermal performance of the electronic package. A method is set forth of improving the thermal performance of an electronic package through the intermediary of compressive forces being generated between the package components during package operation.

Abstract: A method of enhancing the passive thermal management of electronic packages, and an electronic package consisting of a vertically-oriented substrate, such as a printed circuit board or the like, a heat-generating electronic module, for example, containing at least one chip which is positioned on a substrate, and a cover plate located adjacent to the module at a predetermined spaced relationship therefrom. The cover plate includes at least one opening located adjacent the module at a predetermined location relative thereto so as to ensure a maximum cooling air flow impinging on the module, and which air flow thereafter passes upwardly between the substrate and the cover plate. The cover plate may be equipped with a heat-sink structure, such as fins, for cooling the module, which structure is adapted to project through the opening formed in the cover plate or to lie flush therewith.

Abstract: An assembly support mount includes at least two flexible, retention posts spaced apart with ends to engage a heat sink frictionally to support the heat sink relative to an electronic device. The flexible retention posts are attached to a substrate without the need for holes in the substrate and extend past a heat generating device into openings in a heat sink where they are attached by any number of means, preferrably by frictionally engaging the openings in the heat sink.