Abstract: An electronic assembly is provided. The electronic assembly may include an electronic module mounted to a laminate, a cooling apparatus directly above the module, a single thermal interface material positioned between and directly contacting the module and the cooling apparatus, and a rotating cover rotatably attached to a top frame secured to the laminate, wherein the rotating cover includes an open position and a closed position.

Abstract: An apparatus that includes a plurality of linkage arms connected one to another by one of a plurality of joints, wherein the plurality of linkage arms has a first end and a second end, and the first end is adapted to allow for removable attachment of a cold plate from a cooling assembly in a computer server, and a coupling that reversibly connects the second end of the plurality of linkage arms to a location on the cooling assembly, wherein the coupling is adapted to allow the plurality of linkage arms to be held in place at the location on the cooling assembly. The plurality of linkage arms are adapted to move along a predefined travel pathway and adapted to be reversibly converted between at least a lowered configuration and a service configuration.

Abstract: An electronic module assembly is provided. The electronic module assembly may include one or more processors mounted to a laminate, a top frame mounted to the laminate and surrounding the one or more processors, and a removable lid covering the one or more processors. The removable lid includes latches arranged along a perimeter of the removable lid, the latches engage with a lip of the top frame and secure the removable lid to the module assembly, and the removable lid can only be removed from the module assembly by releasing all of the latches.

Abstract: An electronic module assembly is provided. The electronic module assembly may include one or more processors mounted to a laminate, a top frame mounted to the laminate and surrounding the one or more processors, and a removable lid covering the one or more processors. The removable lid includes latches arranged along a perimeter of the removable lid, the latches engage with a lip of the top frame and secure the removable lid to the module assembly, and the removable lid can only be removed from the module assembly by releasing all of the latches.

Abstract: An electronic assembly is provided. The electronic assembly may include an electronic module mounted to a laminate, a cooling apparatus directly above the module, a single thermal interface material positioned between and directly contacting the module and the cooling apparatus, and a rotating cover rotatably attached to a top frame secured to the laminate, wherein the rotating cover includes an open position and a closed position.

Abstract: A chip package comprises a chip having a first temperature sensor. The first temperature sensor is configured to measure a first temperature of the chip in a localized area around the first temperature sensor. The chip package also includes a chip carrier coupled to the chip via a plurality of solder connections. The chip carrier includes a second temperature sensor vertically aligned with the first temperature sensor. The second temperature sensor is configured to measure a second temperature of the chip carrier in a localized area around the second temperature sensor. The chip carrier further includes a localized heater element located near the second temperature sensor and configured to generate heat in response to a detected difference based on comparison of the first temperature and the second temperature such that the detected difference is adjusted in the localized area around the first temperature sensor.

Abstract: Structural combinations of TIMs and methods of combining these TIMs in semiconductor packages are disclosed. An embodiment forms the structures by selectively metallizing a backside of a semiconductor chip (chip) on chip hot spots, placing a higher performance thermal interface material (TIM) on the metallized hot spots, selectively metalizing an underside of a lid in one or more metalized lid locations, and assembling a lid over the backside of the chip to create an assembly so that metalized lid locations are in contact with the higher performance TIMs. A lower performance TIM fills the region surrounding the higher performance TIM on the underside of the lid enclosing the chips. Disclosed are methods of disposing both solid and dispensable TIMs, curing and not curing the thermal interface, and structures to keep the TIMs in place while assembly the package and compressing dispensable TIMs.

Abstract: Coolant-cooled heat sinks and methods of fabrication are provided with a coolant-carrying compartment between a cover and a heat transfer base. The heat transfer base includes a heat transfer surface to couple to a component to be cooled, and a plurality of thermally-conductive fins extending into the coolant-carrying compartment from a surface of the heat transfer base opposite to the heat transfer surface. One or more grooves are provided in an interface surface of the cover and fins, and wicking element(s) are positioned within, at least in part, the groove(s). A joining material is provided between the cover and fins to join the plurality of thermally-conductive fins to the cover. The wicking element(s) within, at least in part, the groove(s) facilitate retaining the joining material over the plurality of thermally-conductive fins during joining of the cover and fins.

Abstract: Coolant-cooled heat sinks and methods of fabrication are provided with a coolant-carrying compartment between a cover and a heat transfer base. The heat transfer base includes a heat transfer surface to couple to a component to be cooled, and a plurality of thermally-conductive fins extending into the coolant-carrying compartment from a surface of the heat transfer base opposite to the heat transfer surface. One or more grooves are provided in an interface surface of the cover and fins, and wicking element(s) are positioned within, at least in part, the groove(s). A joining material is provided between the cover and fins to join the plurality of thermally-conductive fins to the cover. The wicking element(s) within, at least in part, the groove(s) facilitate retaining the joining material over the plurality of thermally-conductive fins during joining of the cover and fins.

Abstract: Structural combinations of TIMs and methods of combining these TIMs in semiconductor packages are disclosed. An embodiment forms the structures by selectively metallizing a backside of a semiconductor chip (chip) on chip hot spots, placing a higher performance thermal interface material (TIM) on the metallized hot spots, selectively metalizing an underside of a lid in one or more metalized lid locations, and assembling a lid over the backside of the chip to create an assembly so that metalized lid locations are in contact with the higher performance TIMs. A lower performance TIM fills the region surrounding the higher performance TIM on the underside of the lid enclosing the chips. Disclosed are methods of disposing both solid and dispensable TIMs, curing and not curing the thermal interface, and structures to keep the TIMs in place while assembly the package and compressing dispensable TIMs.

Abstract: Methods of producing coolant-cooled heat sinks with a coolant-carrying compartment between a cover and a heat transfer base are provided. The heat transfer base includes a heat transfer surface to couple to a component to be cooled, and a plurality of thermally-conductive fins extending into the coolant-carrying compartment from a surface of the heat transfer base opposite to the heat transfer surface. The method includes positioning a screen with openings over the plurality of thermally-conductive fins, between the plurality of thermally-conductive fins and the cover, and providing a joining material over the screen, between the screen and the cover. The method also includes joining the plurality of thermally-conductive fins to the cover across the screen using the joining material, where the screen facilitates retaining the joining material over the plurality of thermally-conductive fins during the joining.

Abstract: The present invention relates generally to apparatus and methods for cooling semiconductor integrated circuit (IC) chip package structures. More specifically, the present invention relates to apparatus and methods for thermally coupling semiconductor chips to a heat conducting device (e.g., copper thermal hat or lid) using a compliant thermally conductive material (e.g., thermal paste), wherein a thermal interface is designed to prevent/inhibit the formation of voids in the compliant thermally conductive material due to the flow of such material in and out from between the chips and the heat conducting device due to thermal cycling.

Abstract: Apparatus and methods are provided for thermally coupling a semiconductor chip directly to a heat conducting device (e.g., a copper heat sink) using a thermal joint that provides increased thermal conductivity between the heat conducting device and high power density regions of the semiconductor chip, while minimizing or eliminating mechanical stress due to the relative displacement due to the difference in thermal expansion between the semiconductor chip and the heat conducting device.

Abstract: The present invention relates generally to apparatus and methods for cooling semiconductor integrated circuit (IC) chip package structures. More specifically, the present invention relates to apparatus and methods for thermally coupling semiconductor chips to a heat conducting device (e.g., copper thermal hat or lid) using a compliant thermally conductive material (e.g., thermal paste), wherein a thermal interface is designed to prevent/inhibit the formation of voids in the compliant thermally conductive material due to the flow of such material in and out from between the chips and the heat conducting device due to thermal cycling.

Abstract: The present invention relates generally to apparatus and methods for cooling semiconductor integrated circuit (IC) chip package structures. More specifically, the present invention relates to apparatus and methods for thermally coupling semiconductor chips to a heat conducting device (e.g., copper thermal hat or lid) using a compliant thermally conductive material (e.g., thermal paste), wherein a thermal interface is designed to prevent/inhibit the formation of voids in the compliant thermally conductive material due to the flow of such material in and out from between the chips and the heat conducting device due to thermal cycling.

Abstract: Apparatus and methods are provided for thermally coupling a semiconductor chip directly to a heat conducting device (e.g., a copper heat sink) using a thermal joint that provides increased thermal conductivity between the heat conducting device and high power density regions of the semiconductor chip, while minimizing or eliminating mechanical stress due to the relative displacement due to the difference in thermal expansion between the semiconductor chip and the heat conducting device.

Abstract: An integrated circuit module, a land grid array module, and a method for forming the module, include a substrate, which mounts one or more chips or discrete electronic components, and a cap for covering the substrate, and including at least one protrusion coupled to the cap for limiting the amount of flexing of the substrate during actuation. The at least one protrusion can be either rigidly fixed to the cap or adjustably inserted through the cap.

Abstract: In an integrated circuit structure, such as in an MCM or in an SCM, a particulate thermally conductive conformable material, such as a thermal paste, is applied between a heat-generating chip and a cooling plate. Modification of the microstructure of at least one of the two nominally parallel surfaces which are in contact with the material is provided in a discrete pattern of sloped recesses. The largest particles in the material preferentially migrate downward into the recesses. The average thickness of the conductive paste is reduced to below the diameter of the largest particles dispersed in the material, providing improved cooling.

Abstract: An integrated circuit module, a land grid array module, and a method for forming the module, include a substrate, which mounts one or more chips or discrete electronic components, and a cap for covering the substrate, and including at least one protrusion coupled to the cap for limiting the amount of flexing of the substrate during actuation. The at least one protrusion can be either rigidly fixed to the cap or adjustably inserted through the cap.

Abstract: In an integrated circuit structure, such as in an MCM or in an SCM, a particulate thermally conductive conformable material, such as a thermal paste, is applied between a heat-generating chip and a cooling plate. Modification of the microstructure of at least one of the two nominally parallel surfaces which are in contact with the material is provided in a discrete pattern of sloped recesses. The largest particles in the material preferentially migrate downward into the recesses. The average thickness of the conductive paste is reduced to below the diameter of the largest particles dispersed in the material, providing improved cooling.