초록 ▼

A method of providing utilities to a computer data center is discussed. The method includes initially connecting one or more non-evaporative cooling units to a data center as primary cooling plants, obtaining a government-issued water permit, and after obtaining the government-issued water permit, t

A method of providing utilities to a computer data center is discussed. The method includes initially connecting one or more non-evaporative cooling units to a data center as primary cooling plants, obtaining a government-issued water permit, and after obtaining the government-issued water permit, transitioning primary cooling for the data center to one or more evaporative cooling towers.

대표청구항 ▼

1. A method of providing cooling by a cooling system to a computer data center, the method comprising: providing a first cooling water circuit arranged to circulate first cooling water between (a) equipment that cools air circulated inside the computer data center and (b) one or more water-to-water

1. A method of providing cooling by a cooling system to a computer data center, the method comprising: providing a first cooling water circuit arranged to circulate first cooling water between (a) equipment that cools air circulated inside the computer data center and (b) one or more water-to-water heat exchangers;providing a second cooling water circuit arranged to circulate second cooling water between (a) the one or more water-to-water heat exchangers and (b) a plurality of closed water-to-air heat exchangers that have powered fans for circulating atmospheric air across a plurality of coils;mechanically circulating water through the first cooling water circuit to draw heat from the data center and to provide the heat from the data center to the second cooling water circulated through the one or more water-to-water heat exchangers; andmechanically circulating water through the second cooling water circuit to draw heat from the second cooling water circulated through the one or more water-to-water heat exchangers to the atmospheric air circulated through the one or more water-to-air heat exchangers outside the data center,wherein water in the first cooling water circuit is isolated from water in the second cooling water circuit, and both cooling water circuits are closed so that water in both cooling water circuits is isolated from an ambient environment around the cooling system. 2. The method of claim 1, further comprising: controllably circulating (a) a first part of the water in the first cooling water circuit to a first side of one or more chillers to cool the first part of the water, and (b) a second part of the water in the first cooling water circuit to the one or more water-to-water heat exchangers to cool the second part of the water; andmixing the first part of the water cooled with the one or more chillers with the second part of the water cooled in the one or more water-to-water heat exchangers before returning the water to equipment in the data center that is cooled by the water. 3. The method of claim 2, further comprising blending water circulated to the first side of the one or more chillers with water circulated to the one or more water-to-water heat exchangers. 4. The method of claim 2, further comprising controllably proportioning relative amounts of water provided to the one or more chillers, and the water-to-water heat exchangers in response to heat load conditions sensed for the data center. 5. The method of claim 4, where the heat load conditions sensed for the data center comprise changes in ambient conditions near the data center, heat loads in the data center, or both. 6. The method of claim 4, further comprising performing the controllable proportioning using three-way mixing valves in the first cooling water circuit and the second cooling water circuit. 7. The method of claim 6, further comprising circulating the blended water to the equipment that cools air circulated inside the computer data center. 8. The method of claim 1, further comprising misting water on the water-to-air heat exchangers to increase heat transfer out of water circulated through the water-to-air heat exchangers. 9. The method of claim 1, wherein the fans comprise updraft or downdraft fans. 10. The method of claim 1, further comprising circulating water in the first cooling water circuit through a header that connects, and is located between, (a) cooling water sub-circuits for the data center and (b) the one or more water-to-water heat exchangers. 11. A cooling system for a computer data center, the system comprising: fluid conduits forming (1) a first cooling water circuit that is arranged to circulate first cooling water between (a) equipment that cools air circulated inside the computer data center and (b) one or more water-to-water heat exchangers, and (2) a second cooling water circuit that is arranged to circulate second cooling water between (a) the one or more water-to-water heat exchangers and (b) a plurality of closed water-to-air heat exchangers that have powered fans for circulating atmospheric air across a plurality of coils;one or more first pumps connected to circulate water through the first cooling water circuit to draw heat from the data center and to provide the heat from the data center to the one or more water-to-water heat exchangers; andone or more second pumps connected to circulate water through the second cooling water circuit to draw heat from the one or more water-to-water heat exchangers to the one or more water-to-air heat exchangers outside the data center,wherein water in the first cooling water circuit is isolated from water in the second cooling water circuit, and both cooling water circuits are closed to atmosphere so that water in both cooling water circuits is isolated from an ambient environment around the cooling system. 12. The system of claim 11, further comprising a central control system programmed to control the first pumps in response to changes in cooling load on the data center, changes in atmospheric heat conditions, or both. 13. The system of claim 12, further comprising a plurality of control valves connected to the central control system and arranged to controllably alter a proportion of flow in the first cooling water circuit that is routed in the first cooling water circuit to chilled water sides of one or more chillers, as compared to water that is routed through a first side of the one or more water-to-water heat exchangers. 14. The system of claim 13, wherein the central control system is programmed to increase a proportion of water that is provided to the chilled water sides of the one or more chillers relative to a proportion of water that is provided to the first side of the one or more water-to-water heat exchangers, when a cooling load in the data center increases, ambient heat conditions increase, or both. 15. The system of claim 11, further comprising a data center supply header and a data center return header in the first cooling water circuit, the data center supply header and the data center return header including conduits having a plurality of taps, with a first plurality of taps connected to piping that is inside the data center, and a second plurality of taps connected to outputs of the one or more chillers. 16. The system of claim 15, wherein the data center supply header and data center return header are arranged to intermix chilled water supplied from the one or more chillers with water supplied from the one or more water-to-water heat exchangers, so as to provide increased cooling diversity in the first cooling fluid circuit. 17. The system of claim 15, further comprising a condenser loop supply header and condenser loop return header that each include a conduit having a plurality of taps, with a first plurality of taps connected to the water-to-air-radiators and a second plurality of taps connected to the one or more chillers and the one or more water-to-water heat exchangers. 18. A cooling system for a computer data center, comprising: a plurality of closed water-to-air heat exchangers connected to a condenser water loop that is closed to an environment around the heat exchangers;one or more water-to-water heat exchangers each having a first side connected to the condenser water loop, and a second side connected to a cooling water loop that is further connected to cooling equipment that is arranged to cool a data center; anda control system, pumps, and valving arranged in coordination with each other to controllably increase or decrease an amount of water circulated through the closed water-to-air heat exchangers in response to changing heat conditions in or around the data center,wherein the closed water-to-air heat exchangers are closed to an environment that surrounds the water-to-air heat exchangers. 19. The system of claim 18, further comprising one or more chillers having first sides connected to the cooling water loop and second sides connected to the condenser water loop. 20. The system of claim 19, wherein the control system is programmed to increase utilization of the one or more chillers relative to utilization of the plurality of closed water-to-air heat exchangers in response to increasing heat conditions in or around the data center. 21. The system of claim 19, wherein at least a portion of the control system, pumps, and valving arranged in coordination with each other are arranged to intermix chilled water supplied from the one or more chillers with cooled water supplied from the one or more water-to-water heat exchangers, so as to provide increased cooling diversity in the first cooling fluid circuit. 22. The method of claim 1, further comprising transferring the heat from the data center directly to the second cooling water from the first cooling water in the one or more water-to-water heat exchangers.