Abstract: Systems and methods for a datacenter cooling system are disclosed. In at least one embodiment, a secondary cooling loop interfaces with a primary cooling loop and includes at least one processor that is adapted with a first proportional-integral-derivative (PID) controller to control a first flow controller, which can cause a flow rate for a secondary coolant from a coolant distribution unit (CDU) to a plurality of second flow controllers, and where the plurality of second flow controllers are associated with a plurality of second PID controllers and the flow rate is based in part of on feedback from the plurality of second PID controllers.

Abstract: A system includes one or more two-phase cooling loops including one or more coolant pumps and one or more cooling condensers integrated within one or more servers to cause one or more first server components to be cooled using a single-phase coolant and to cause one or more second server components consuming more power than the one or more first server components to be cooled using a two-phase coolant. The one or more cooling condensers are to condense and cool the two-phase coolant using the single-phase coolant.

Abstract: Systems and methods include pressure sensors that measure a pressure differential of coolant between a first coolant line and a second coolant line. Coolant flow control valves control respective valve flow rates. A processor selects a valve from the flow control valves to provide coolant to a coolant output, responsive to the measured pressure differential.

Abstract: Systems, methods, and technique for improved data center cooling. In at least one embodiment, a data center cooling system may include a heat exchange device that exchanges heat between a first coolant in a first cooling loop, which may absorb heat from one or more first components of a computing system, and a second liquid coolant in a second cooling loop, which may absorb heat from one or more second components of the computing system.

Abstract: Embodiments described herein provide a coolant distribution unit having one or more swappable components. In at least one embodiment, one or more coolant distribution units may contain one or more swappable filters coupled to one or more isolation valves that control one or more coolant flows through the one or more swappable filters.

Abstract: A system includes one or more first cooling loops to cool one or more first components within one or more servers having a first power density, and one or more second cooling loops to cool one or more second components within the one or more servers having a second power density. The system can flow first coolant to cold plates to cool high-power server components and flow second coolant to cool low-power server components by immersion cooling.

Abstract: Systems and methods for cooling a datacenter are disclosed. In at least one embodiment, a first interfacing flow controller includes a sensor and is associated with a first server tray of a rack, so that a first interfacing flow controller can receive sensor inputs and can communicate with a second interfacing flow controller by a communication line there between, where a second interfacing flow controller can be associated with a coolant distribution unit (CDU) to cause a balance of coolant flow to be provided from a CDU to one or more second server trays based in part on a change in a coolant flow to a first server tray as indicated by such sensor inputs.

Abstract: A system includes one or more first cooling loops to cool one or more first components within one or more servers having a first power density, and one or more second cooling loops to cool one or more second components within the one or more servers having a second power density. The system can flow first coolant to cold plates to cool high-power server components and flow second coolant to cool low-power server components by immersion cooling.

Abstract: Systems and methods include pressure sensors that measure a pressure differential of coolant between a first coolant line and a second coolant line. Coolant flow control valves control respective valve flow rates. A processor selects a valve from the flow control valves to provide coolant to a coolant output, responsive to the measured pressure differential.

Abstract: Systems and methods for cooling a datacenter are disclosed. In at least one embodiment, a primary cooling loop includes at least one primary flow controller to control flow of a primary coolant to a coolant distribution unit (CDU) at a primary flow rate that is determined based in part on heat generated from one or more computing devices that is to be addressed by a secondary coolant, which is to be cooled in a CDU by a primary coolant at a primary flow rate enabled by at least one primary flow controller.

Abstract: Systems and methods for cooling a datacenter are disclosed. In at least one embodiment, a first interfacing flow controller includes a sensor and is associated with a first server tray of a rack, so that a first interfacing flow controller can receive sensor inputs and can communicate with a second interfacing flow controller by a communication line there between, where a second interfacing flow controller can be associated with a coolant distribution unit (CDU) to cause a balance of coolant flow to be provided from a CDU to one or more second server trays based in part on a change in a coolant flow to a first server tray as indicated by such sensor inputs.