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Apc cooling solutions
- 1. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Solution: Close Coupling ● Removing heat at the source saves energy ● Requires less fan horse power ● Enables variable speed fans • Does not have to pressurize floor for air distribution • Addresses varying heat loads ● Warmer air return • Increases system capacity • Reduces unit quantities • Requires less space ● Enables High Density • Future proofing for unknown densities • Fully utilize expensive floor space What is the cost of one additional rack if you are outWhat is the cost of one additional rack if you are out of space in the data center?of space in the data center?
- 2. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Close Coupling Cooling
- 3. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Basic In-Row™ Design InfraStruXure® InRow RC InRow™ air conditioner Can operate on hard floor or raised floor Hot-aisle air enters from rear preventing mixing Cold air is supplied to the cold aisle Heat captured and rejected to chilled water Low or No air mixing
- 4. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers R & D leads the way ● Powerful new tools – CFD analysis ● “Out of the box” approaches driven by reality, not tradition ● Partnerships with chip/server manufacturers ● Professional focus by mechanical engineers through ASHRAE ● Market opportunity Manufacturers have solutions that work will work up to 45 KW per rack, now!
- 5. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Which leads to a real solutions……….. The secret is treating heat at it’s source.
- 6. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers CFD Allows us to see success
- 7. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers And failure……………
- 8. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Hot-Aisle CI Calculations Hot-Aisle CI 0 0.25 0.5 0.75 1 Concentration Rack 900 cfm Cooler 2000 cfm From other racks or room environment Escapes coolers %78 900 2000 35.0 900 702 =⎟⎟ ⎠ ⎞ ⎜⎜ ⎝ ⎛ == cfm cfm cfm cfm CI 900 cfm C=1 198 cfm C=1 2000 cfm C=0.35 1298 cfm C=0 702 cfm C=1 CI=78%
- 9. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Designing Data Centers With CI ● Compute CI for every rack in data center ● Ideally, automated in CFD tool ● Generally, with local coolers or return vents, hot-aisle CI preferred • “Room-neutral” strategy • Focus on equipment bounding a hot aisle ● Can estimate cooling performance exclusively with CI (conservative) CI good marginal bad
- 10. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Rack-by-rack airflow analysis for various failure conditions in real time during designin real time during design
- 11. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Capacity Manager Product Design Benefits Rack elevations Easy to use rack front view enables accurate and detailed representation of equipment location Airflow analysis Locate new devices without overheating new or existing equipment by simulating changes in; supply temperature, airflow and number of cooling units Available capacity Understand available capacity by calculating actual space, power and cooling consumption against data center architecture constraints Physical equipment provisioning Quickly locate the optimum spot for that next server based on space, cooling and power needs Design analysis Model the effects of and compare alternative layouts through detailed design analysis Capacity Grouping Specify architecture capabilities to; match IT equipment with availability needs ad avoid stranded space, power and cooling capacity
- 12. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers In-Row Cooling ● Cooling systems are placed within IT rows instead of at the room leve ● Inherently higher power density capability than room designs ● Fan power is reduced by 50% ● Needless dehumidification / rehumidification is eliminated (saving millions of gallons of water per year per MW). Hi ΔT is good! ● Need for high-bay areas and raised floors are reduced or eliminated (particularly for small installations) ● Cooling capacity can “follow” IT loads that move due to Virtualization / server power management ● Low mixing of Cool Air back into CRAC w/ Low ΔT! Electrical savings possibility: 7-15% For new designs; Exceptional for high density designs
- 13. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Room Row Rack Cooling Architectures ● The two main cooling equipment functions are to… ● Provide the bulk cooling capacity ● Distribute the air to the IT loads ● The major difference in architectures lies in how they perform the second task. ● Airflow is crudely constrained by room design, is not visible in implementation, and varies considerably between installations. Floor plans showing the basic concept of room, row, and rack-oriented cooling architecture.
- 14. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Benefits Comparison of Cooling Architectures Summary and Analysis The modular rack-oriented architecture is the most flexible, fast to implement, and achieves extreme density, but at the cost of additional expense. Room-oriented architecture is inflexible, time consuming to implement, and performs poorly at higher density, but has cost and simplicity advantages at lower density. The modular row-oriented architecture provides many of the flexibility, speed, and density advantages of the rack-oriented approach, but with cost similar to the room-oriented architecture.
- 15. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Electrical Efficiency Rack-oriented Architecture Lower electrical costs Room-oriented Architecture Lower electrical costs with low power densities, but dramatically increase with rising densities Air needs to travel more distance Power consumed by unit to mix air Row-oriented Architecture Lower electrical costs with higher power densities Closely coupled with heat load Usable capacity sustained
- 16. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Water or Other Heat Transport Piping Concern: Leakage due to water or refrigerant piping being located with IT equipment, causing leaks and therefore downtime. Solution: Advances in piping technology dramatically reduced chance of leakage and improved reliability. See APC White Paper 131 for more information.
- 17. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Location Rack-oriented Architecture Complete performance predictability Minimal future planning requirements Room-oriented Architecture Performance affected by CRAC location Future planning required Row-Oriented Architecture Smaller footprint Lower TCO
- 18. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Redundancy Rack-oriented Architecture 2 CRAC systems per rack Highly effective for high density Room-oriented Architecture 1 additional CRAC unit per room Cost effective at low densities Row-Oriented Architecture 1 additional CRAC unit per row Lower TCO for high density
- 19. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Mixed Cooling Architecture Room-oriented Rack-oriented Row-oriented See APC White Paper #130, “The Advantages of Row and Rack-Oriented Cooling Architectures for Data Centers
- 20. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Exemple of a Hybrid Data Center Environment
- 21. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Summary ● Room-oriented architecture has limitations in next generation data centers. ● Row and rack-oriented architectures provide flexibility, predictability, scalability, reduced power consumption, reduced TCO, and optimum availability for next generation data centers. ● High density server technologies are best suited with row- oriented architecture.
- 22. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Enclosing the Hot-aisle Hot Aisle Ceiling Tiles/Cable Trough Seals in hot air, prevents mixing with room air Chamber Doors Access to hot aisle, locks for security. Prevents hot air mixing InRow RC unit InRow air conditioner cools hot exhaust air directly
- 23. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers Enclosing the Hot Rack
- 24. All content in this presentation is protected – © 2008 American Power Conversion Corporation New InRoom Precision Cooling Room level precision cooling solutions for all data center environments
- 25. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers InRoom Introduction Room level precision cooling solutions for all data center environments Efficient room cooling with a low cost of ownership
- 26. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers InRoom Applications ●Temperature Control ● +/- 1 OC ● Prevents overheating of equipment 21kW (6 ton) to 150kW (43 ton) Humidity Control +/- 3-5% R.H. Eliminates static discharge Prevents Condensation Filtration 30-85% (ASHRAE), Efficient Minimizes airborne particles High Volume Air Flow Provides 2600 CFM (189 L/s) Improves Air Distribution Reduces localized hot spots
- 27. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers InRoom Precision Cooling ● InRoom Air Cooled ● InRoom Chilled Water ● InRoom Glycol Cooled ● InRoom Air Cooled with Multi-Cool ● InRoom Glycol Cooled with Multi- Cool ● InRoom Glycol with Economizer InRoom Configurations
- 28. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers InRoom Precision Cooling 1000mm 39.37 1400mm 55.11 1750mm 68.90 2150mm 84.65 2550mm 100.39 21kW 31kW 45kW 61kW 86kW 21kW 31kW 45kW 61kW A,G,ACW,GCW: =1 Refrigerant Circuit GE = 1 Refrigerant Circuit A,G,ACW,GCW = 2 Refrigerant Circuits GE = 2 Refrigerant Circuits InRoom Direct Expansion Capacities
- 29. APC by Schneider Electric – Name – Date InfraStruXure™ for Data Centers InRoom Precision Cooling 1000mm 39.37 1400mm 55.11 1750mm 68.90 2150mm 84.65 2550mm 100.39 40kW 66kW 90kW 110kW 150kW InRoom Chilled Water Capacities Cooling Capacity Return Air: 24’C/50%(75’F/50%) Water: 7/12’C(44,6/53,6’F)