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Optimum Climate Control For Datacenter - Case Study. T. Prabu March 17 th 2009

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(1)

T. Prabu

T. Prabu

March 17

March 17

thth

2009

2009

Optimum Climate Control

For Datacenter

(2)

About EDEC (Emerson) Facility

Data Center Details

Design Considerations & Challenges

Layout Design

CFD Analysis Of Datacenter

Summary

Agenda

(3)

About EDEC (Emerson) Facility

About EDEC (Emerson) Facility

• New Facility

• Area (Sq Ft) Built Up: 240,000 • Carpet: 185,000

• No Of Floors: Basement + Ground + 5 • Total Power Requirement

• Connected Load: 4000 KVA, Demand Load: 3030 KVA

• Power Back Up: 5 X 750 KVA DG Sets • Capacity

• 3 Floors (Ground, First and Second)

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Data Center Details

Data Center Details

• Area 1520 Sq.Ft

• Location Ground Floor

• Tier 3 Class Data Center

• 24 X 7 Monitoring

• Current Capacity Up To 15 Racks 42 U (800 X 1000), Approx. 80 Servers, Provision For 20 Racks

• 100% Redundancy In Network, AC And Power

• Fully Protected From Fire And Water Leakage

• 4 GB Fiber Network Back Bone With 1 GB Till Desktop

• More Advance Core Switches ( Layer 3 Switches) For Switching And Routing

• IP Telephony System

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Design Consideration & Challenges

Design Consideration & Challenges

• Energy Efficient Datacenter

• Optimize Air Management

• Right Sizing Of The Datacenter

• Solution Provided By A Single / Multiple Vendor

• Raised Flooring And Overhead Space

• Hot & Cold Aisle Design

• Perforated Tiles & Cabling

• Redundant Power Supply

• Separated Electrical Room & Datacenter

• Safety Measures

• Fire Detector / Water Leakage Sensor / VESDA-early Fire Detection / Gas Release Panel – To Suppress The Fire In A Minute Automatically

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Energy Distribution In Datacenter

Energy Distribution In Datacenter

38% 1% 1% 5% 3% 15% 14% 15% 4% 4% Storage Communication Other Server Server power Cooling Lighting PDU UPS Switchgear Processor

• Cooling Load Is the Major Part Of The Power Consumption • Major Heating Sources In Data Center Are Processors &

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Optimize Air Management

Optimize Air Management

• Calculate The Critical Heat Load

• Depends The Equipment Deployed In The Room In Addition To The Heat Transferred From The Surrounding, Lighting And Other Sources Of Heat

• Estimate The Flow Requirement For Cooling The RLU

• Estimate The Power Density Based On RLU Cooling Rate

• Establish Room Cooling Strategy

• Based On The Space Availability And The Arrangements Of All The Ancillary Equipments In Addition To The Server Racks

• Determine The Cooling Methodology

• Based On Available Facility And The Easiness

• Heat Rejection And Cooling Redundancy

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Right Sizing Of The Datacenter

Right Sizing Of The Datacenter

• Fixed Losses

• Irrespective Of The IT Load There Are Losses Due To Physical Infrastructure Equipments

• Over Sizing Of Physical System

• Use Of Modular, Scalable Physical Infrastructure Have The Flexibility To Add When Additional IT Load Is Needed

• Better Prediction Of Future Need

• The Need Of The Future Expansion For The Organization Should Be Planned Properly

• Adaptable To New Technology

• The New Servers With More Heat Generation Should Also Be Considered

• Determine The Computing Source Required And Estimate The Capacity

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Solution Provided By Emerson

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Layout Design

Layout Design

• Air Management Strategy

• Plan The Air Flow Dynamics Based On The Load

• Raised Flooring/Overhead Space

• Insulate The Datacenter From The Direct Exposure To The Ambient

• Hot/Cold Aisle

• Separates The Hot And Cold Air Distribution System

• Positioning Of The Cooling System

• Better Temperature Control By Proper Position

• Perforated Tiles & Cabling

• Air Leakage And Thermal Insulation To Be Taken Care

• Precision Air-condition System

(11)

EDEC Data Center Layout

EDEC Data Center Layout

• The Layout Is Arranged In Longitudinal Direction & Parallel To PEX

(12)

CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 1: Fully Loaded With 2 PEX Active

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Temperature distribution at plane 1.25 m

Velocity vector distribution at plane 1.25 m

Temperature distribution at plane 4 m

Velocity vector distribution at plane 4 m

CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

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CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 2: 40% Loaded With 2 PEX Active

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CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 2: 40% Loaded With 2 PEX Active

Temperature distribution at plane 1.25 m

Velocity vector distribution at plane 1.25 m

Temperature distribution at plane 4 m

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CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 3: Fully Loaded With 3 PEX Active

Server Racks

PE

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CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 3: Fully Loaded With 3 PEX Active

Temperature distribution at plane 1.25 m

Velocity vector distribution at plane 1.25 m

Temperature distribution at plane 4 m

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CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 4: 40% Loaded With 1 PEX Active

Server Racks

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CFD Analysis Of Datacenter

CFD Analysis Of Datacenter

Case 4: 40% Loaded With 1 PEX Active

Temperature distribution at plane 1.25 m

Velocity vector distribution at plane 1.25 m

Temperature distribution at plane 4 m

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Summary

Summary

• Upto 30% Saving On Cooling Load Can Be Achieved

• PEX Arrangements

• Improve Air Flow Distribution By Ducting

• Bypass Of Hot And Cold Air Can Be Avoided By Providing Partitioning

• Complete Utilization Of Cold Air Can Be Achieved By Including The Baffles In The Flow Path

• Proper Logical Server Arrangement In The Rack Can Reduce The Cooling Load Requirement

• The CFD Technique:

• At Design Stage

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Thank You

References

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