Rack form-factor reservoir for datacenter cooling systems
Systems and methods for cooling a datacenter are disclosed. In at least one embodiment, a fluid reservoir in a form-factor of at least one rack is provided, the fluid reservoir to store fluid, the fluid to be passed to a cold plate or an immersive-cooled server, and the fluid to be cooled by a secondary cooling loop or an air-cooling system.
1. A datacenter cooling system, comprising:
a fluid reservoir in a form-factor of at least one rack, the fluid reservoir storing a cooling fluid of the datacenter cooling system; and
a secondary cooling loop comprising a secondary coolant that is different from the cooling fluid;
wherein the cooling fluid is cooled, while in the fluid reservoir, by the secondary coolant in the secondary cooling loop or by an air-cooling system, and then passed out of the fluid reservoir to a cold plate or an immersive-cooled server of a server rack of a datacenter; and
wherein the cold plate comprises distinct flow paths to conduct the cooling fluid and the secondary coolant.
2. The datacenter cooling system of claim 1 , further comprising:
at least one processor that determines that a failure associated with the secondary cooling loop has occurred and causes at least one flow controller to enable the cooling fluid to flow through a server-level cooling loop associated with the cold plate or the immersive-cooled server in response to the determination that the failure has occurred.
3. The datacenter cooling system of claim 1 , further comprising:
ports of the cold plate to receive the secondary coolant of the secondary cooling loop and to receive the cooling fluid, the cooling fluid to be used with the secondary coolant to enable thermal equilibrium between the secondary coolant and the cooling fluid.
4. The datacenter cooling system of claim 1 , further comprising:
a fluid path in the at least one rack for the cooling fluid to flow from the fluid reservoir to the cold plate or the immersive-cooled server; and
a coolant path in the at least one rack for secondary coolant of the secondary cooling loop to flow through the at least one rack and to cool the cooling fluid in the fluid reservoir.
5. The datacenter cooling system of claim 1 , further comprising:
at least one processor associated with the fluid reservoir, the at least one processor to control flow controllers associated with the secondary coolant of the secondary cooling loop and with the cooling fluid in the fluid reservoir, so that the secondary coolant and the cooling fluid are in thermal equilibrium at a determined temperature, the determined temperature associated with at least a temperature in a working range of at least one computing device that is associated with the cold plate or the immersive-cooled server.
6. The datacenter cooling system of claim 1 , further comprising:
a first flow controller that enables the secondary coolant to flow from the secondary cooling loop to a first distinct flow path of the distinct flow paths of the cold plate or to the immersive-cooled server; and
a second flow controller that enables the cooling fluid to flow from the fluid reservoir to a second distinct flow path of the distinct flow paths of the cold plate or to the immersive-cooled server in response to a determination that a failure associated with the secondary cooling loop has occurred.
7. The datacenter cooling system of claim 1 , further comprising:
a liquid-to-air heat exchanger of the air-cooling system or a coolant distribution unit (CDU) associated with a primary cooling loop, the liquid-to-air heat exchanger and the CDU to enable cooling of the cooling fluid within the fluid reservoir.
8. The datacenter cooling system of claim 1 , further comprising:
flow controllers to enable simultaneous flow into the cold plate, or to enable simultaneous presence in the cold plate or the immersive-cooled server, of the secondary coolant of the secondary cooling loop and of the cooling fluid from the fluid reservoir.
9. The datacenter cooling system of claim 1 , further comprising:
the fluid reservoir located at a determined location with respect to the server rack, the determined location to enable secondary coolant from a CDU to achieve thermal equilibrium with respect to the cooling fluid and to cool the server rack.
10. The datacenter cooling system of claim 1 , further comprising:
a heat exchanger of the air-cooling system that enables thermal equilibrium for secondary coolant of the secondary cooling loop, the heat exchanger to remove heat from the cooling fluid of the fluid reservoir, the secondary coolant to share a temperature or range of temperatures with the cooling fluid, the temperature or the range of temperatures to represent the thermal equilibrium.
11. A fluid reservoir in a form-factor of a least one rack for a datacenter cooling system, the fluid reservoir comprising:
cooling fluid of the datacenter cooling system stored in the fluid reservoir; and
a secondary cooling loop comprising a secondary coolant that is different from the cooling fluid;
wherein the cooling fluid is cooled, while in the fluid reservoir, by the secondary coolant in the secondary cooling loop or by an air-cooling system, and then both the secondary coolant is passed from the secondary cooling loop and the cooling fluid is passed out of the fluid reservoir to distinct flow paths of a cold plate or an immersive-cooled server of a server rack of a datacenter.
12. The fluid reservoir of claim 11 , further comprising:
a processor associated with the fluid reservoir that determines that a failure associated with the secondary cooling loop has occurred and, in response to the determination that the failure has occurred, causes at least one flow controller to enable the cooling fluid to flow through a server-level cooling loop associated with the cold plate or the immersive-cooled server.
13. The fluid reservoir of claim 11 , further comprising:
a fluid path in the at least one rack for the cooling fluid to flow from the fluid reservoir to the cold plate or the immersive-cooled server; and
a coolant path in the at least one rack for secondary coolant of the secondary cooling loop to flow through the at least one rack and to cool the cooling fluid in the fluid reservoir.
14. The fluid reservoir of claim 11 , further comprising:
a processor associated with the fluid reservoir that controls a first flow controller associated with the secondary coolant of the secondary cooling loop and a second controller associated with the cooling fluid in the fluid reservoir, wherein the secondary coolant and the cooling fluid are in thermal equilibrium at a determined temperature, the determined temperature associated with at least a temperature in a working range of at least one computing device that is associated with the cold plate or the immersive-cooled server.
15. The fluid reservoir of claim 11 , further comprising:
a first flow controller that enables the secondary coolant to flow from the secondary cooling loop to a first distinct flow path of the distinct flow paths of the cold plate or the immersive-cooled server; and
a second flow controller that enables the cooling fluid to flow from the fluid reservoir to a second distinct flow path of the distinct flow paths of the cold plate or the immersive-cooled server in response to a determination that a failure associated with the secondary cooling loop has occurred.
16. The fluid reservoir of claim 11 , further comprising:
flow controllers that enable simultaneous flow of the secondary coolant of the secondary cooling loop and of the cooling fluid from the fluid reservoir into the distinct flow paths of the cold plate.
17. The fluid reservoir of claim 11 , further comprising:
a heat exchanger of the air-cooling system to enable thermal equilibrium for the secondary coolant of the secondary cooling loop, the heat exchanger to remove heat from the cooling fluid of the fluid reservoir, the secondary coolant to share a temperature or range of temperatures with the cooling fluid, the temperature or the range of temperatures to represent the thermal equilibrium.
18. A method, comprising:
storing a cooling fluid of a datacenter cooling system in a fluid reservoir in a form-factor of at least one rack;
cooling the cooling fluid using a secondary coolant of a secondary cooling loop or an air-cooling system while the cooling fluid is in the fluid reservoir;
enabling the secondary coolant of the secondary cooling loop to flow to a first distinct flow path of a cold plate or to an immersive-cooled server of a server rack of a datacenter; and
enabling, after cooling the cooling fluid in the fluid reservoir, the cooling fluid to be passed out of the fluid reservoir to a second distinct flow path of the cold plate or to the immersive-cooled server.
19. The method of claim 18 , further comprising:
determining, using a processor, that a failure associated with the secondary cooling loop has occurred; and
causing, using the processor and in response to the determination that the failure has occurred, at least one flow controller to enable the cooling fluid to flow through a server-level cooling loop associated with the cold plate or the immersive-cooled server.
20. The method of claim 18 , further comprising:
enabling ports of the cold plate to receive the secondary coolant of the secondary cooling loop and to receive the cooling fluid from the fluid reservoir, the cooling fluid to be used with the secondary coolant to achieve thermal equilibrium between the secondary coolant and the cooling fluid.
21. The method of claim 18 , further comprising:
enabling the cooling fluid to flow from the fluid reservoir to the cold plate or the immersive-cooled server via a fluid path in the at least one rack; and
enabling the secondary coolant of the secondary cooling loop to flow through the at least one rack and to cool the cooling fluid in the fluid reservoir via a coolant path in the at least one rack.
22. The method of claim 18 , further comprising:
associating at least one processor associated with the fluid reservoir; and
controlling, using the at least one processor, flow controllers associated with the secondary coolant of the secondary cooling loop and with the cooling fluid in the fluid reservoir, the secondary coolant and the cooling fluid in thermal equilibrium at a determined temperature, the determined temperature associated with at least a temperature in a working range of at least one computing device that is associated with the cold plate or the immersive-cooled server.
23. The method of claim 18 , further comprising:
enabling, using a first flow controller, the secondary coolant to flow from the secondary cooling loop to the first distinct flow path of the cold plate or to the immersive-cooled server;
determining that a failure associated with the secondary cooling loop has occurred; and
enabling, using a second flow controller and in response to the determination that the failure has occurred, the cooling fluid to flow from the fluid reservoir to the second distinct flow path of the cold plate or to the immersive-cooled server.
24. The method of claim 18 , further comprising:
providing a liquid-to-air heat exchanger of the air-cooling system or a coolant distribution unit (CDU) associated with a primary cooling loop, the liquid-to-air heat exchanger and the CDU to enable cooling of the cooling fluid within the fluid reservoir.
25. The method of claim 18 , further comprising:
enabling, using flow controllers, simultaneous flow of the secondary coolant of the secondary cooling loop and of the cooling fluid from the fluid reservoir into the first and second distinct flow paths of the cold plate, respectively.
26. The method of claim 18 , further comprising:
locating the fluid reservoir at a determined location with respect to the server rack, the determined location to enable secondary coolant from a CDU to achieve thermal equilibrium with the cooling fluid and to cool the server rack.
27. The method of claim 18 , further comprising:
enabling, using a heat exchanger of the air-cooling system, thermal equilibrium between the secondary coolant of the secondary cooling loop and the cooling fluid of the fluid reservoir, the heat exchanger to remove heat from the cooling fluid of the fluid reservoir, the secondary coolant to share a temperature or range of temperatures with the cooling fluid, the temperature or the range of temperatures to represent the thermal equilibrium.