Abstract: A semiconductor microcooler is fabricated by forming fins in a semiconductor substrate and forming a metal layer upon the fins. A stacked microcooler may be formed by stacking a plurality of semiconductor microcoolers. The microcoolers may be positioned such that the fins of each microcooler are aligned. One or more microcoolers may be thermally connected to a surface of a coolant conduit that is thermally connected to an electronic device heat generating device, such as an integrated circuit (IC) chip, or the like. Heat from the electronic device heat generating device may transfer to the one or more microcoolers. A flow of cooled liquid may be introduced through the conduit and heat from the one or more microcoolers may transfer to the liquid coolant.

Abstract: A semiconductor microcooler is fabricated by forming fins in a semiconductor substrate and forming a metal layer upon the fins. A stacked microcooler may be formed by stacking a plurality of semiconductor microcoolers. The microcoolers may be positioned such that the fins of each microcooler are vertically aligned. The microcoolers may include an inlet passage to accept coolant and an outlet passage to expel the coolant. One or more microcoolers may be thermally connected to an electronic device heat generating device, such as an integrated circuit (IC) chip, or the like. Heat from the electronic device heat generating device may transfer to the one or more microcoolers. A flow of cooled liquid may be introduced through the passages and heat from the one or more microcoolers may transfer to the liquid coolant.

Abstract: A semiconductor microcooler is fabricated by forming fins in a semiconductor substrate and forming a metal layer upon the fins. A stacked microcooler may be formed by stacking a plurality of semiconductor microcoolers. The microcoolers may be positioned such that the fins of each microcooler are aligned. One or more microcoolers may be thermally connected to a surface of a coolant conduit that is thermally connected to an electronic device heat generating device, such as an integrated circuit (IC) chip, or the like. Heat from the electronic device heat generating device may transfer to the one or more microcoolers. A flow of cooled liquid may be introduced through the conduit and heat from the one or more microcoolers may transfer to the liquid coolant.

Abstract: A semiconductor microcooler is fabricated by forming fins in a semiconductor substrate and forming a metal layer upon the fins. A stacked microcooler may be formed by stacking a plurality of semiconductor microcoolers. The microcoolers may be positioned such that the fins of each microcooler are vertically aligned. The microcoolers may include an inlet passage to accept coolant and an outlet passage to expel the coolant. One or more microcoolers may be thermally connected to an electronic device heat generating device, such as an integrated circuit (IC) chip, or the like. Heat from the electronic device heat generating device may transfer to the one or more microcoolers. A flow of cooled liquid may be introduced through the passages and heat from the one or more microcoolers may transfer to the liquid coolant.

Abstract: A multi integrated circuit (IC) chip package includes multiple IC chips, a carrier, and a lid. The IC chips may be connected to the carrier. Alternatively, each IC chip may be connected to an interposer and multiple interposers may be connected to the carrier. The carrier may be positioned within a carrier deck. The lid may be positioned relative to carrier by aligning one or more alignment receptacles within the lid with one or more respective alignment protrusions of the carrier deck. A compression fixture cover may contact the lid and exert a force toward the carrier deck, respective lid pedestals may be loaded toward respective IC chips, and an integral lid foot may be loaded toward the carrier. While under compression, thermal interface material between respective lid pedestals and respective IC chips and seal band material between the integral foot and the carrier may be cured.

Abstract: A cooling structure for large electronic boards with closely-spaced heterogeneous die and packages is disclosed. The assembly includes a frame having a plurality of openings. The assembly further includes a cold plate mounted to the frame. The cold plate includes at least one inlet and at least one outlet and fluid channels in communication with the at least one inlet and the at least one outlet. The assembly further includes a heat sink mounted within each of the plurality of openings which in combination with sidewalls of the openings of the frame and the cold plate form individual compartments each of which are in fluid communication with the fluid channels.

Abstract: A technique relates to an electronic package. A substrate is configured to receive a chip. A stiffener is attached to the substrate. The stiffener includes a core material with a first material formed on opposing sides of the core material.

Abstract: Techniques that facilitate a copper microcooler structure are provided. In one example, a device includes a first copper microcooler structure and a second copper microcooler structure. The first copper microcooler structure includes a first copper plate and a first set of copper channels attached to the first copper plate. The second copper microcooler structure includes a second copper plate and a second set of copper channels attached to the second copper plate. A surface of the second copper plate associated with the second copper microcooler structure is bonded to one or more surfaces of the first set of copper channels associated with the first copper microcooler structure via a fusion bond.

Abstract: Techniques that facilitate a copper microcooler structure are provided. In one example, a device includes a first copper microcooler structure and a second copper microcooler structure. The first copper microcooler structure includes a first copper plate and a first set of copper channels attached to the first copper plate. The second copper microcooler structure includes a second copper plate and a second set of copper channels attached to the second copper plate. A surface of the second copper plate associated with the second copper microcooler structure is bonded to one or more surfaces of the first set of copper channels associated with the first copper microcooler structure via a fusion bond.

Abstract: A heat sink includes a threaded rod. The spacing between a first fin and a second fin of the heat sink may be adjusted by the threaded rod. The threaded rod includes a first portion and a second portion. The first portion may engage with the first fin and a second portion may engage with the second fin. The thread pitch of the first portion and the second portion may differ. For example, the pitch of a first knurl of the threaded rod may be smaller than the pitch of a second threaded knurl of the threaded rod. The spacing of the heat sink fins may be adjusted based upon the current operating conditions of the electronic device to maintain an optimal temperature of a heat generating device during device operation.

Abstract: A heat sink includes a first fin and a second fin. The spacing between the first fin and the second fin may be adjusted by a threaded rod. The threaded rod may include a first portion that is engaged with the first fin and a second portion that is engaged with the second fin. The thread pitch of the first portion and the second portion may differ. For example, the pitch of a first internal thread of the first fin may be smaller than the pitch of a second internal thread of the second fin. The spacing of the heat sink fins may be adjusted based upon the current operating conditions of the electronic device to maintain an optimal temperature of a heat generating device during device operation.

Abstract: A cooling structure for large electronic boards with closely-spaced heterogeneous die and packages is disclosed. The assembly includes a frame having a plurality of openings. The assembly further includes a cold plate mounted to the frame. The cold plate includes at least one inlet and at least one outlet and fluid channels in communication with the at least one inlet and the at least one outlet. The assembly further includes a heat sink mounted within each of the plurality of openings which in combination with sidewalls of the openings of the frame and the cold plate form individual compartments each of which are in fluid communication with the fluid channels.

Abstract: Direct bonding heterogeneous integration packaging structures and processes include a packaging substrate with first and second opposing surfaces. A trench or a pedestal is provided in the first surface. A bridge is disposed in the trench or is adjacent the pedestal sidewall, wherein the bridge includes an upper surface coplanar with the first surface of the package substrate. At least two chips in a side by side proximal arrangement overly the bridge and the packaging substrate, wherein the bridge underlies peripheral edges of the at least two chips in the side by side proximal arrangement. The at least two chips include a plurality of electric connections that are directly coupled to corresponding electrical connections on the bridge and on the packaging substrate.

Abstract: An electrical package may comprise a first substrate with a first substrate surface, and a microprocessor chip connected to the first substrate surface. The microprocessor chip may comprise a first chip surface that electrically connects to the first substrate surface, and a second chip surface located opposite the first chip surface. The electrical package may comprise a heat spreader assembly that comprises a lid section and a contact surface thermally connected to the second-chip surface. The electrical package may also comprise a pedestal between the contact surface and the lid section. The pedestal may comprise a first end that is located near the contact surface and a second end that is located near the lid section. The second end may be wider than the first end.

Abstract: A technique relates to an electronic package. A substrate is configured to receive a chip. A stiffener is attached to the substrate. The stiffener includes a core material with a first material formed on opposing sides of the core material.

Abstract: An electronic package includes a carrier and a semiconductor chip. In a first aspect an interleaved seal band includes a pattern of a first type of seal band material and a second type of seal band material.

Abstract: An electrical package may comprise a first substrate with a first substrate surface, and a microprocessor chip connected to the first substrate surface. The microprocessor chip may comprise a first chip surface that electrically connects to the first substrate surface, and a second chip surface located opposite the first chip surface. The electrical package may comprise a heat spreader assembly that comprises a lid section and a contact surface thermally connected to the second-chip surface. The electrical package may also comprise a pedestal between the contact surface and the lid section. The pedestal may comprise a first end that is located near the contact surface and a second end that is located near the lid section. The second end may be wider than the first end.

Abstract: A cooling structure for large electronic boards with closely-spaced heterogeneous die and packages is disclosed. The assembly includes a frame having a plurality of openings. The assembly further includes a cold plate mounted to the frame. The cold plate includes at least one inlet and at least one outlet and fluid channels in communication with the at least one inlet and the at least one outlet. The assembly further includes a heat sink mounted within each of the plurality of openings which in combination with sidewalls of the openings of the frame and the cold plate form individual compartments each of which are in fluid communication with the fluid channels.

Abstract: A cooling structure for large electronic boards with closely-spaced heterogeneous die and packages is disclosed. The assembly includes a frame having a plurality of openings. The assembly further includes a cold plate mounted to the frame. The cold plate includes at least one inlet and at least one outlet and fluid channels in communication with the at least one inlet and the at least one outlet. The assembly further includes a heat sink mounted within each of the plurality of openings which in combination with sidewalls of the openings of the frame and the cold plate form individual compartments each of which are in fluid communication with the fluid channels.

Abstract: A heat sink includes a heat sink base/riser, a first fin, and a second fin. The spacing between the base/riser and the first fin and the second fin, restively, may be adjusted by rotating a threaded rod. The threaded rod includes a first threaded knurl that is engaged with the first fin and a second threaded knurl that is engaged with the second fin. The thread pitch of the first threaded knurl and the second threaded knurl may differ. For example, the pitch of the first threaded knurl may be smaller than the pitch of the second threaded knurl if the first fin is located nearest the heat sink base/riser relative to the second fin. The spacing of the heat sink fins may be adjusted based upon the current operating conditions of the electronic device to maintain an optimal temperature of a heat generating device during device operation.