Abstract: A heat sink for distributing a thermal load is disclosed that includes a base receiving the thermal load, the base having a front surface, a back surface, an inner surface, and an outer surface, the outer surface shaped generally as a cylinder and having a flat mounting region, and the inner surface shaped as a cylinder so as to define a cylindrical receiving space, a cylindrical thermal transport connected to the inner surface of the base so as to distribute the thermal load along the inner surface of the base, and heat-dissipating fins connected to the cylindrical thermal transport and extending from the cylindrical thermal transport towards a central axis of the cylindrical receiving space.

Abstract: A heat sink for dissipating a thermal load is disclosed that includes one or more heat sink bases configured around a central axis of the heat sink so as to define an interior space, at least one heat sink base receiving the thermal load, a thermal transport connected to the at least one heat sink base receiving the thermal load so as to distribute the thermal load in the heat sink, and heat-dissipating fins connected to each heat sink base, the heat-dissipating fins extending from each heat sink base into the interior space of the heat sink, each heat-dissipating fin shaped according to the location of the heat-dissipating fin with respect to the location of the thermal load and the location of the distributed thermal load in the heat sink.

Abstract: A heat sink for distributing a thermal load is disclosed that includes two or more base plates connected and oriented around a central axis of the heat sink, at least one base plate receiving the thermal load, each base plate having thermal transport paths, the thermal transport paths oriented among the base plates so as to have the capability of accepting thermal transports having a plurality of lengths for thermal distribution between at least two base plates, heat-dissipating fins connected to each base plate, the heat-dissipating fins spaced apart in parallel and extending from each base plate towards the central axis of the heat sink, and a thermal transport connected between the base plate receiving the thermal load and at least one other base plate so as to distribute the thermal load among the base plates of the heat sink.

Abstract: A heat sink for distributing a thermal load is disclosed that includes a bottom plate, a top plate, a right plate, and a left plate, the plates connected along edges so as to define a space generally cubical in shape with four closed sides and two open ends; heat-dissipating fins connected to each plate, the fins spaced apart in parallel and extending from each plate towards a central axis of the heat sink; and a thermal transport connected to the plate receiving the thermal load and to at least one of the other plates so as to distribute the thermal load among the plates of the heat sink.

Abstract: A heatpipe for cooling an integrated circuit. The heatpipe includes a pipe and radial fins that are formed by extruding a single piece of material, such as heat conducting metal. Each of the radial fins extends away from the pipe and runs (preferably) the length of the pipe. Each radial fin has normally oriented subfins that provide additional heat convection surface areas to the radial fins. Within the pipe are interior fins, also formed during the material extrusion process. The interior fins provide additional conduction cooling to a heat transferring fluid circulating within the pipe.

Abstract: An apparatus, system and method for cooling vertically stacked printed circuit boards (PCBs). In one embodiment, a first PCB is disposed within a substantially enclosed lower chamber inside a PCB containment housing. A second PCB is disposed above the first PCB within the housing to define a substantially enclosed upper chamber above the lower chamber. The second PCB includes one or more airflow apertures defined therethrough and providing vertical air flow coupling between the upper and lower chambers. An airflow actuating device is utilized to generate a primary forced airflow within the upper chamber which is substantially parallel to the surface plane of the second PCB. The primary forced airflow further induces a negative air pressure in the upper chamber such that a mixed convection airflow is established between the upper and lower chambers via the second PCB apertures.

Abstract: A heatpipe for cooling an integrated circuit. The heatpipe includes a pipe and radial fins that are formed by extruding a single piece of material, such as heat conducting metal. Each of the radial fins extends away from the pipe and runs (preferably) the length of the pipe. Each radial fin has normally oriented subfins that provide additional heat convection surface areas to the radial fins. Within the pipe are interior fins, also formed during the material extrusion process.