Abstract: A cold plate assembly for cooling a computing device includes a first cooling structure and a second cooling structure. The first cooling structure is configured to provide cooling from a flow of first coolant to a first temperature section of the computing device. The second cooling structure is connected to the first cooling structure and is configured to provide cooling from a flow of second coolant to a second temperature section of the computing device. The second temperature section has a lower temperature threshold than the first temperature section. The cold plate assembly includes a thermal barrier between the first cooling structure and the second cooling structure.

Abstract: A cold plate assembly for cooling a computing device includes a first cooling structure and a second cooling structure. The first cooling structure is configured to provide cooling from a flow of first coolant to a first temperature section of the computing device. The second cooling structure is connected to the first cooling structure and is configured to provide cooling from a flow of second coolant to a second temperature section of the computing device. The second temperature section has a lower temperature threshold than the first temperature section. The cold plate assembly includes a thermal barrier between the first cooling structure and the second cooling structure.

Abstract: A cold plate assembly for cooling a computing device includes a first cooling structure and a second cooling structure. The first cooling structure is configured to provide cooling from a flow of first coolant to a first temperature section of the computing device. The second cooling structure is connected to the first cooling structure and is configured to provide cooling from a flow of second coolant to a second temperature section of the computing device. The second temperature section has a lower temperature threshold than the first temperature section. The cold plate assembly includes a thermal barrier between the first cooling structure and the second cooling structure.

Abstract: A system may include a datacenter supervisory control system (SCS). A system may include at least one datacenter sensor in data communication with the SCS to communicate a datacenter state variable to the SCS. A system may include at least one environmental sensor in data communication with the SCS to communicate an environmental state variable to the SCS. A system may include a water aware controller in data communication with the SCS, wherein the water aware controller includes a predictor that receives a datacenter state input based on the datacenter state variable, the environmental state input based on the environmental state variable, and at least one user objective function, and the water aware controller transmits a selected action to the SCS to meet a setpoint based on the datacenter state input and the environmental state input.

Abstract: A thermal management system includes an air handling unit (AHU) configured to receive outside air (OA) from an OA intake, and water from a water source, where the AHU is configured to direct conditioned air toward a cold aisle and the AHU includes a modular adiabatic layer containing an evaporative media, and the modular adiabatic layer includes a plurality of subregions configured to be wetted by the evaporative media independently of one another.

Abstract: A power controller allocates input power to a datacenter between computing power for computing services, backup power, and overhead power for overhead systems. The power controller reallocates the overhead power and/or the backup power to the computing power. This may increase the overall utilization of the datacenter by allowing additional processing power of the servers to be used.

Abstract: The description relates to battery safety and more specifically to containing battery fires. One example can include displacement sub-systems configured to physically separate an affected battery pack from other battery packs. Another example can include a 3D deployable fire curtain configured to automatically deploy around a battery pack to limit the spread of fire between battery packs. A further example can include a media reservoir positioned over a battery pack that is configured to hold non-combustible smothering media. A media retainer can be interposed between the battery pack and the media reservoir and configured to automatically release the non-combustible smothering media into the battery pack support structure when the battery pack experiences a fire.

Abstract: A system for passively exhausting air from a structure includes at least one pair of modules arranged on a roof of the structure. Each module has an exhaust face on one side and a sloped surface on the opposite side, and can receive exhaust air that flows upward from inside the structure. The modules can be arranged in pairs facing one another, with one of the sloped surfaces facing a direction of an environmental flow of air, so that the environmental air can flow up the sloped surface of one module and down the sloped surface of the other module without impinging on the exhaust faces of either module. The pairs can also be arranged side-by-side in an array, which can be expanded with additional pairs of modules to exhaust from the structure at a greater rate.

Abstract: A system for passively exhausting air from a structure includes at least one pair of modules arranged on a roof of the structure. Each module has an exhaust face on one side and a sloped surface on the opposite side, and can receive exhaust air that flows upward from inside the structure. The modules can be arranged in pairs facing one another, with one of the sloped surfaces facing a direction of an environmental flow of air, so that the environmental air can flow up the sloped surface of one module and down the sloped surface of the other module without impinging on the exhaust faces of either module. The pairs can also be arranged side-by-side in an array, which can be expanded with additional pairs of modules to exhaust from the structure at a greater rate.

Abstract: A system for passively exhausting air from a structure includes at least one pair of modules arranged on a roof of the structure. Each module has an exhaust face on one side and a sloped surface on the opposite side, and can receive exhaust air that flows upward from inside the structure. The modules can be arranged in pairs facing one another, with one of the sloped surfaces facing a direction of an environmental flow of air, so that the environmental air can flow up the sloped surface of one module and down the sloped surface of the other module without impinging on the exhaust faces of either module. The pairs can also be arranged side-by-side in an array, which can be expanded with additional pairs of modules to exhaust from the structure at a greater rate.

Abstract: A system for passively exhausting air from a structure includes at least one pair of modules arranged on a roof of the structure. Each module has an exhaust face on one side and a sloped surface on the opposite side, and can receive exhaust air that flows upward from inside the structure. The modules can be arranged in pairs facing one another, with one of the sloped surfaces facing a direction of an environmental flow of air, so that the environmental air can flow up the sloped surface of one module and down the sloped surface of the other module without impinging on the exhaust faces of either module. The pairs can also be arranged side-by-side in an array, which can be expanded with additional pairs of modules to exhaust from the structure at a greater rate.