Abstract: A heat exchanger includes a first manifold having an inlet opening and a second manifold having an outlet opening. A group of conduits fluidly connect the first manifold and the second manifold to one another such that a flow path is established for liquid to flow from the inlet opening to the outlet opening. The flow path includes a select portion that extends through all conduits within the group of conduits. Valves are located in the first manifold and the second manifold. The valves are operable to change the select portion of the flow path from between a first state, wherein the conduits within group of conduits are fluidly connected in parallel with one another, and a second state, wherein the conduits within the group of conduits are fluidly connected in series with one another.

Abstract: A cage for containing a liquid immersible computer hardware component includes a base portion and two elongate portions extending in a depth direction from the base portion. The elongate portions define a socket adjacent to the base portion in the depth direction and between the elongate portions in a lateral direction. The base portion defines a depth extension below the socket in the depth direction and the elongate portions define lateral extensions on either side of the socket. The cage also includes a power adaptor for conveying power from an intake at an outer edge of the cage to the component when the component is received in the socket.

Abstract: A heat exchanger includes a first manifold having an inlet opening and a second manifold having an outlet opening. A group of conduits fluidly connect the first manifold and the second manifold to one another such that a flow path is established for liquid to flow from the inlet opening to the outlet opening. The flow path includes a select portion that extends through all conduits within the group of conduits. Valves are located in the first manifold and the second manifold. The valves are operable to change the select portion of the flow path from between a first state, wherein the conduits within group of conduits are fluidly connected in parallel with one another, and a second state, wherein the conduits within the group of conduits are fluidly connected in series with one another.

Abstract: A cage for containing a liquid immersible computer hardware component includes a base portion and two elongate portions extending in a depth direction from the base portion. The elongate portions define a socket adjacent to the base portion in the depth direction and between the elongate portions in a lateral direction. The base portion defines a depth extension below the socket in the depth direction and the elongate portions define lateral extensions on either side of the socket. The cage also includes a power adaptor for conveying power from an intake at an outer edge of the cage to the component when the component is received in the socket.

Abstract: A housing and cooling system for computer hardware includes an infrastructure module and a payload module. The infrastructure module is configured for housing computer hardware and is equipped with either or both of a convective air cooling system and an arrangement of metal plates connected by one or more conduits for carrying liquid for cooling computer equipment housed by the infrastructure module. The infrastructure modules also houses a programmable logic controller (“PLC”). The payload module includes an immersion cooling system governed by the PLC and is located outside of the infrastructure module.

Abstract: A housing and cooling system for computer hardware includes an infrastructure module and a payload module. The infrastructure module is configured for housing computer hardware and is equipped with either or both of a convective air cooling system and an arrangement of metal plates connected by one or more conduits for carrying liquid for cooling computer equipment housed by the infrastructure module. The infrastructure modules also houses a programmable logic controller (“PLC”). The payload module includes an immersion cooling system governed by the PLC and is located outside of the infrastructure module.

Abstract: A gantry crane for attachment to an immersion cooling system includes rails attachable to a tank of the immersion cooling system. The gantry also includes a collapsible frame configured to travel along the rails. A connector is adapted for connecting to a computer hardware component intended to be cooled in the immersion cooling system, and the gantry includes a winch mounted to the frame and configured to raise and lower the connector.

Abstract: The technology relates to a cage configured to removably receive a module. The cage may include a frame comprising a plurality of panels joined to one another, a lever pivotably coupled to the frame, and a heatsink pivotably coupled to the lever. The panels together may extend around a longitudinal recess configured to receive the module therein. The longitudinal recess may define a longitudinal axis thereof. A first one of the panels may have an aperture defined therein in communication with the longitudinal recess. A first end of the lever may extend into the longitudinal recess. The heatsink may be pivotably coupled to a second end of the lever opposite the first end. The heatsink may be movable in a translation direction transverse to the longitudinal axis. The heatsink may be translatable between a first position outside of the longitudinal recess and a second position partially inside the longitudinal recess.

Abstract: The technology relates to a cage configured to removably receive a module. The cage may include a frame comprising a plurality of panels joined to one another, a lever pivotably coupled to the frame, and a heatsink pivotably coupled to the lever. The panels together may extend around a longitudinal recess configured to receive the module therein. The longitudinal recess may define a longitudinal axis thereof. A first one of the panels may have an aperture defined therein in communication with the longitudinal recess. A first end of the lever may extend into the longitudinal recess. The heatsink may be pivotably coupled to a second end of the lever opposite the first end. The heatsink may be movable in a translation direction transverse to the longitudinal axis. The heatsink may be translatable between a first position outside of the longitudinal recess and a second position partially inside the longitudinal recess.

Abstract: Systems and methods for data center liquid cooling apparatus provisioning are described. In some aspects, such systems and methods may provision one or more data center liquid cooling apparatus, e.g., prior to such apparatus being put into service to a data center to cool data center devices, such as server trays (and more specifically, heat-generating devices such as processors, memories, voltage regulators, and other devices mounted on motherboards of the server trays). In some aspects, such liquid cooling apparatus include cold plates or evaporators that are mounted in thermal communication with the heat generating devices (in the server trays) and utilize a flow of a cooling liquid (e.g., water, glycol, refrigerant) to remove heat from the server tray (e.g., with or without a phase change of the cooling liquid).

Abstract: A data center cooling system includes an outer container that defines a first volume; an inner container that defines a second volume and is positioned within the first volume, the inner container including an air outlet that includes an airflow path between the first and second volumes; a liquid seal to fluidly isolate a liquid phase of a non-conductive coolant that fills at least a portion of the first and second volumes from an ambient environment; and at least one server tray assembly. The server tray assembly includes a plurality of electronic heat-generating devices immersed in the liquid phase of the non-conductive coolant; and an immersion cooling system mounted to and in conductive thermal contact with one or more of the plurality of electronic heat-generating devices. The immersion cooling system includes a working fluid in thermal communication with the one or more electronic heat-generating devices and the non-conductive coolant.

Abstract: A server tray package includes a motherboard assembly that includes a plurality of data center electronic devices, the plurality of data center electronic devices including at least one heat generating processor device; a vapor chamber mounted on and in conductive thermal contact with the at least one heat generating processor device, the vapor chamber including a housing that defines an inner volume and encloses a working fluid; and a liquid cold plate assembly that includes a top portion mounted to at least one of the vapor chamber or the motherboard assembly and including a heat transfer member that includes an inlet port and an outlet port that are in fluid communication with a cooling liquid flow path defined through the heat transfer member and formed on a top surface of the housing of the vapor chamber.

Abstract: Systems and methods for data center liquid cooling apparatus provisioning are described. In some aspects, such systems and methods may provision one or more data center liquid cooling apparatus, e.g., prior to such apparatus being put into service to a data center to cool data center devices, such as server trays (and more specifically, heat-generating devices such as processors, memories, voltage regulators, and other devices mounted on motherboards of the server trays). In some aspects, such liquid cooling apparatus include cold plates or evaporators that are mounted in thermal communication with the heat generating devices (in the server trays) and utilize a flow of a cooling liquid (e.g., water, glycol, refrigerant) to remove heat from the server tray (e.g., with or without a phase change of the cooling liquid).

Abstract: Systems and methods for data center liquid cooling apparatus provisioning are described. In some aspects, such systems and methods may provision one or more data center liquid cooling apparatus, e.g., prior to such apparatus being put into service to a data center to cool data center devices, such as server trays (and more specifically, heat-generating devices such as processors, memories, voltage regulators, and other devices mounted on motherboards of the server trays). In some aspects, such liquid cooling apparatus include cold plates or evaporators that are mounted in thermal communication with the heat generating devices (in the server trays) and utilize a flow of a cooling liquid (e.g., water, glycol, refrigerant) to remove heat from the server tray (e.g., with or without a phase change of the cooling liquid).

Abstract: A data center cooling system includes an outer container that defines a first volume; an inner container that defines a second volume and is positioned within the first volume, the inner container including an air outlet that includes an airflow path between the first and second volumes; a liquid seal to fluidly isolate a liquid phase of a non-conductive coolant that fills at least a portion of the first and second volumes from an ambient environment; and at least one server tray assembly. The server tray assembly includes a plurality of electronic heat-generating devices immersed in the liquid phase of the non-conductive coolant; and an immersion cooling system mounted to and in conductive thermal contact with one or more of the plurality of electronic heat-generating devices. The immersion cooling system includes a working fluid in thermal communication with the one or more electronic heat-generating devices and the non-conductive coolant.

Abstract: A server tray package includes a motherboard assembly that includes a plurality of data center electronic devices, the plurality of data center electronic devices including at least one heat generating processor device; a vapor chamber mounted on and in conductive thermal contact with the at least one heat generating processor device, the vapor chamber including a housing that defines an inner volume and encloses a working fluid; and a liquid cold plate assembly that includes a top portion mounted to at least one of the vapor chamber or the motherboard assembly and including a heat transfer member that includes an inlet port and an outlet port that are in fluid communication with a cooling liquid flow path defined through the heat transfer member and formed on a top surface of the housing of the vapor chamber.

Abstract: Systems and methods for data center liquid cooling apparatus provisioning are described. In some aspects, such systems and methods may provision one or more data center liquid cooling apparatus, e.g., prior to such apparatus being put into service to a data center to cool data center devices, such as server trays (and more specifically, heat-generating devices such as processors, memories, voltage regulators, and other devices mounted on motherboards of the server trays). In some aspects, such liquid cooling apparatus include cold plates or evaporators that are mounted in thermal communication with the heat generating devices (in the server trays) and utilize a flow of a cooling liquid (e.g., water, glycol, refrigerant) to remove heat from the server tray (e.g., with or without a phase change of the cooling liquid).

Abstract: A heat transfer apparatus includes a circuit board assembly and an image sensor including a plurality of photodetectors disposed in a semiconductor material. The image sensor is mounted to the circuit board assembly. A thermal strap with a first end is thermally coupled to transfer heat out of the image sensor. A heat sink is thermally coupled to a second end of the thermal strap opposite the first end of the thermal strap to receive heat from the image sensor.

Abstract: A heat transfer apparatus includes a circuit board assembly and an image sensor including a plurality of photodetectors disposed in a semiconductor material. The image sensor is mounted to the circuit board assembly. A thermal strap with a first end is thermally coupled to transfer heat out of the image sensor. A heat sink is thermally coupled to a second end of the thermal strap opposite the first end of the thermal strap to receive heat from the image sensor.