Education Evolution: Scalable Server Rooms George Lantouris Client Relationship Manager (Education) May 2009



Similar documents
Power and Cooling for Ultra-High Density Racks and Blade Servers

APC APPLICATION NOTE #112

Ten Steps to Solving Cooling Problems Caused by High- Density Server Deployment

Dealing with Thermal Issues in Data Center Universal Aisle Containment

Re Engineering to a "Green" Data Center, with Measurable ROI

APC APPLICATION NOTE #92

Choosing Close-Coupled IT Cooling Solutions

Benefits of. Air Flow Management. Data Center

2006 APC corporation. Cooling Solutions and Selling Strategies for Wiring Closets and Small IT Rooms

Strategies for Deploying Blade Servers in Existing Data Centers

Optimizing Network Performance through PASSIVE AIR FLOW MANAGEMENT IN THE DATA CENTER

Airflow Simulation Solves Data Centre Cooling Problem

Data Centre Energy Efficiency Operating for Optimisation Robert M Pe / Sept. 20, 2012 National Energy Efficiency Conference Singapore

Unified Physical Infrastructure (UPI) Strategies for Thermal Management

Data Centre Solutions... energy efficient by design. APC by Schneider Electric Elite Data Centre Partner. APC s leading Elite Data Centre Solutions

Data Center Power Consumption

Free Cooling in Data Centers. John Speck, RCDD, DCDC JFC Solutions

Cooling Audit for Identifying Potential Cooling Problems in Data Centers

Elements of Energy Efficiency in Data Centre Cooling Architecture

Power and Cooling Guidelines for Deploying IT in Colocation Data Centers

Data Center Technology: Physical Infrastructure

Liquid Cooling Solutions for DATA CENTERS - R.M.IYENGAR BLUESTAR LIMITED.

Managing Cooling Capacity & Redundancy In Data Centers Today

Data center upgrade proposal. (phase one)

Unified Physical Infrastructure SM (UPI) Strategies for Smart Data Centers

Verizon SMARTS Data Center Design Phase 1 Conceptual Study Report Ms. Leah Zabarenko Verizon Business 2606A Carsins Run Road Aberdeen, MD 21001

GUIDE TO ICT SERVER ROOM ENERGY EFFICIENCY. Public Sector ICT Special Working Group

How To Run A Data Center Efficiently

How Row-based Data Center Cooling Works

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

Air, Fluid Flow, and Thermal Simulation of Data Centers with Autodesk Revit 2013 and Autodesk BIM 360

How to Meet 24 by Forever Cooling Demands of your Data Center

White Paper. Data Center Containment Cooling Strategies. Abstract WHITE PAPER EC9001. Geist Updated August 2010

Avoidable Mistakes that Compromise Cooling Performance in Data Centers and Network Rooms

Containment Solutions

Blade Server & Data Room Cooling Specialists

Energy Efficiency Opportunities in Federal High Performance Computing Data Centers

Selecting Rack-Mount Power Distribution Units For High-Efficiency Data Centers

Data Centre Infrastructure Assessment

How To Improve Energy Efficiency Through Raising Inlet Temperatures

DataCenter 2020: hot aisle and cold aisle containment efficiencies reveal no significant differences

How To Power And Cool A Data Center

Introducing Computational Fluid Dynamics Virtual Facility 6SigmaDC

Hot Air Isolation Cools High-Density Data Centers By: Ian Seaton, Technology Marketing Manager, Chatsworth Products, Inc.

CURBING THE COST OF DATA CENTER COOLING. Charles B. Kensky, PE, LEED AP BD+C, CEA Executive Vice President Bala Consulting Engineers

IMPROVING DATA CENTER EFFICIENCY AND CAPACITY WITH AISLE CONTAINMENT

Managing Data Centre Heat Issues

Cooling a hot issue? MINKELS COLD CORRIDOR TM SOLUTION

The Efficient Enterprise. Juan Carlos Londoño Data Center Projects Engineer APC by Schneider Electric

Data Centers. Mapping Cisco Nexus, Catalyst, and MDS Logical Architectures into PANDUIT Physical Layer Infrastructure Solutions

Top 5 Trends in Data Center Energy Efficiency

AisleLok Modular Containment vs. Legacy Containment: A Comparative CFD Study of IT Inlet Temperatures and Fan Energy Savings

BRUNS-PAK Presents MARK S. EVANKO, Principal

Improving Rack Cooling Performance Using Airflow Management Blanking Panels

APC by Schneider Electric

Combining Cold Aisle Containment with Intelligent Control to Optimize Data Center Cooling Efficiency

Server Room Thermal Assessment

Green Data Centre Design

Thermal Monitoring Best Practices Benefits gained through proper deployment and utilizing sensors that work with evolving monitoring systems

Data Center Cooling Best Practices

High Density Data Centers Fraught with Peril. Richard A. Greco, Principal EYP Mission Critical Facilities, Inc.

7 Best Practices for Increasing Efficiency, Availability and Capacity. XXXX XXXXXXXX Liebert North America

Data Center Cooling & Air Flow Management. Arnold Murphy, CDCEP, CDCAP March 3, 2015

Data Center Design Guide featuring Water-Side Economizer Solutions. with Dynamic Economizer Cooling

Energy-efficient & scalable data center infrastructure design

Energy Efficiency Best Practice Guide Data Centre and IT Facilities

DATA CENTER SOLUTIONS

Great Lakes Data Room Case Study

Data Center Components Overview

Rack Hygiene. Data Center White Paper. Executive Summary

Fundamentals of CFD and Data Center Cooling Amir Radmehr, Ph.D. Innovative Research, Inc.

Analysis of the UNH Data Center Using CFD Modeling

AIR-SITE GROUP. White Paper. Green Equipment Room Practices

Office of the Government Chief Information Officer. Green Data Centre Practices

ADC-APC Integrated Cisco Data Center Solutions

Raised Floor Data Centers Prepared for the Future

Creating Data Center Efficiencies Using Closed-Loop Design Brent Goren, Data Center Consultant

abstract about the GREEn GRiD

Data Center Energy Profiler Questions Checklist

QUALITATIVE ANALYSIS OF COOLING ARCHITECTURES FOR DATA CENTERS

CANNON T4 MINI / MICRO DATA CENTRE SYSTEMS

Supporting Cisco Switches In Hot Aisle/Cold Aisle Data Centers

The New Data Center Cooling Paradigm The Tiered Approach

Improving Rack Cooling Performance Using Airflow Management Blanking Panels

- White Paper - Data Centre Cooling. Best Practice

Mejora la Eficiencia Operativa en Centros de Datos

National Grid Your Partner in Energy Solutions

Small Data / Telecommunications Room on Slab Floor

The Advantages of Row and Rack- Oriented Cooling Architectures for Data Centers

Thermal Optimisation in the Data Centre

Center Thermal Management Can Live Together

Statement Of Work Professional Services

NetApp Data Center Design

Using Simulation to Improve Data Center Efficiency

Sealing Gaps Under IT Racks: CFD Analysis Reveals Significant Savings Potential

Cooling Capacity Factor (CCF) Reveals Stranded Capacity and Data Center Cost Savings

Data Centre Cooling Air Performance Metrics

HIGHLY EFFICIENT COOLING FOR YOUR DATA CENTRE

Best Practices. for the EU Code of Conduct on Data Centres. Version First Release Release Public

Transcription:

Education Evolution: Scalable Server Rooms George Lantouris Client Relationship Manager (Education) May 2009

Agenda Overview - Network Critical Physical Infrastructure Cooling issues in the Server Room Server Room cooling types and configurations 10 steps to improve existing computer room cooling Conclusions

Today s IT Projects - Education Virtualization Storage and Server consolidation VOIP Unified Communications Wireless Relocations All of the above projects are affecting your Server rooms. At the same time we are in a financial crisis.

Network-Critical Physical Infrastructure Each layer depends on everything below it Reliable Business Operations People Process Information Technology Critical Foundation of Business Continuity Power Cabling Racks and Physical Structure Fire Security and Network Critical Physical Infrastructure Cooling

Introduction Cooling is a critical IT environment process Not well understood by many IT professionals Heat-related failure is the number one cause of downtime in IT facilities 57% of businesses cite cooling as a major Server Room / Data Centre challenge As servers become more powerful and more compact, power consumption and therefore heat generation increases

Computing Changes Moves to Blade Infrastructure - High Density

Cooling the Server Room space Power In = Heat Out 1kW Power = 1kW Heat 1 kw = 3413 BTU/HR

Server Room cooling approaches

Comfort versus Precision Cooling 10KW heat DESIGN Humans 60 / 40% 17KW unit 170% Electricity 3-5 yr design 21 o +/- 3 o C 50% - 15%RH 8 hours/office $ Cooling Load Sensible/Latent Unit Size Opp Ex Lifecycle Temperature Humidity Workday Unit Cost Computers 98 / 2% 10KW unit 100% Electricity 10-15 yr design 21 o +/- 1 o C 50% +/- 5%RH 24 hours/365 day $$$

Today s Main Cooling Architectures Air Cooled Servers Central Air Handling Unit Room Based Architecture Computer Room Air Handler Room Based Architecture InRow Air Handler Row Based Architecture

Traditional Room Cooling Ducted supply air for delivery to heat load Open or ducted return air for heat removal Fixed fan speeds to deliver consistent plenum pressures Airflow restrictions in under floor plenum Non-uniform airflow distribution Central Air Handling Unit (CAHU) Fixed flow tiles/grates Limited capacity resolution Delivery of colder air to the space Reduced Sensible Heat Ratio (SHR) Computer Room Air Handler (CRAH)

Effects of different cooling approaches Same racks, same room, different cooling design Totally different cooling airflow results!

Room Cooling - Raised Floor Air Distribution High density requires more air and more cables

Limitations of Raised Floor Air Distribution KW (Sensible Heat) = Delta T x CFM / 3145 12 10 Rack Power (kw) that can be cooled by one tile with this airflow 8 6 4 2 0 Typical Capability Perf tile With Effort 500-700 cfm Blade Servers Grate tile Extreme Standard IT Equipment Upper limits of raised floor Using grate-type tiles Impractical 0 100 200 300 400 500 600 700 800 900 1000 [47.2] [94.4] [141.6] [188.8] [236.0] [283.2] [330.4] [377.6] [424.8] [471.9] cfm

InRow Eliminates Mixing Predictable Cooling Focus on Heat Removal Doesn t require raised floor for air distribution All racks in the row share cooling capacity Allows for better of matching of cooling to rack power Flexibility for Rack loading to change (not to exceed capacity) Enables predictable redundancy Racks sharing capacity (No Containment shown) Simulation of Failed InRow Cooling Unit

InRow Variable Speed Fans Reduced fan power as a function of load 100% 90% In-row Variable Load Power Consumption Power savings is logarithmic Minimum fan speed to ensure heat removal Power Consumption 80% 70% 60% 50% 40% 30% 20% Variable IT Load In-row variable unit power 10% 0% 0% 20% 40% 60% 80% 100% Load

Ten short-term steps to improve existing computer room cooling

Government Building & Infrastructure Funds 10 Practical Steps and Best Practice to improve existing computer room cooling Operational - Cost Savings 60% of your power usage in your computer room is used by cooling By making your cooling more efficient you will save money and lower your schools carbon footprint Future proofing of your Computer Room APC have Education Pricing

1 Perform a health check (either in-house or by APC or one of partners) Maximum cooling capacity CRAC (computer room air conditioning) units Chiller water/ condenser loop Room temperatures Rack temperatures Tile air velocity Condition of subfloors Airflow within racks Aisle & floor tile arrangement

2 Initiate maintenance regime Regular servicing and preventive maintenance is essential to keeping the computer room operating at peak performance If the system has not been serviced for some time then this should be initiated immediately A regular maintenance regime should be implemented to meet the recommended guidelines of the manufacturers of the cooling components

3 Utilise blanking panels Snap-in blanking panel

Prevents recirculation within the rack BEFORE AFTER 32ºC 27ºC 35ºC Rack front 24ºC 22ºC 22ºC Rack front Blanking panels 28ºC 22ºC 21ºC SIDE VIEW 22ºC 22ºC 22ºC SIDE VIEW

4 Implement cable management regime Unnecessary or unused cabling should be removed Data cables should be cut to the right length and patch panels used where appropriate Power to the equipment should be fed from rack-mounted PDUs with cords cut to the proper length

5 Remove under-floor obstructions Sub-floor cable trays Replace missing tiles Seal around cable cut-outs Replace unused cutouts Replace unused vents with full tiles

6 Separate high-density racks = 10 kw rack, others 2.6 kw The fundamental reason why spreading out highdensity loads is effective is because isolated high power racks can effectively borrow underutilized cooling capacity from neighboring racks.

7 Implement hot-aisle/cold-aisle arrangement Row 1 Row 2 Row 3 Row 4 Without hot/cold aisles: the hot air from row 1 is exhausted into the adjacent aisle, where it mixes with supply or room air and then enters into the front of the racks in row 2

8 Align CRAC units with hot aisles Hot-aisle positioning of CRAC units (raised floor) Raised floor - Align CRACS with hot aisles Hot air return path in line with CRAC Reduces mixing and recirculation Tile airflow increased (farther from CRAC) Warmer return air increases capacity Non-raised floor - Align CRACs with cold aisles Cold air distribution directly in front of CRAC Requires at least one CRAC per cold aisle Only adequate up to 1.5 kw

9 Manage floor vents CRAC or CRAH Rack cabinets Strong airflow Weak airflow Improper location of floor vents can cause cooling air to mix with hot exhaust air before reaching the load equipment

10 Install airflow-assisting devices Hot air scavenging systems Collect hot air at the point of generation Route directly to CRAC Snap-on retrofit 470 L/s airflow Variable speed: as needed Dual path power and N+1 Flexible, movable Hard floor or raised floor Limit: 8kW per rack

10 Rack Air Containment Rack Level Thermal Containment to improve efficiency and predictability to address individual racks and small zones. For 300 and 600mm Netshelter Racks, UPS, PDU, and InRow cooling products Maximizes cooling predictability, efficiency, and capacity Prevents hot air recirculation to sensitive IT equipment System can be easily configured for redundancy Noise dampening

10 In-Row rack-coupled CRAC InfraStruXure Cooling Distribution The Association Unit of Independent Schools of NSW ½ Rack form factor N+1 hot-swap variable speed fans Captures hot air exhaust from nearby IT racks ½ Rack form factor N+1 hot-swap variable speed fans Captures hot air exhaust from nearby IT racks Add units for redundancy or density Up to 30kW rating

10 Active Response Controls Included on All InRow Products Additional Energy Savings by varying fan speed. Improves Reliability by ensuring Inlet Tempers to IT equipment are maintained More Detail on how these controls work available in APC Application Notes: AN-119 http://salestools.apc.com/sql/display.cfm?id=ksih-6y6t2y AN-142 http://salestools.apc.com/sql/display.cfm?id=ksih-744jl9

10 Hot Aisle Containment Systems (HACS) Hot Aisle Ceiling Tiles/Cable Trough Seals in hot air, prevents mixing with room air High Density Zones Supports InRow products Optimize InRow Cooling Increase Efficiency Improve Predictability Use at any density InRow Cooling Units Row-based cooling solution cools hot chamber air Chamber Doors Access to hot aisle, locks for security

NetBotz Architecture Monitor, Detect NetBotz 3 rd Party Equipment InfraStruXure Central GSM SMS Alert Sensor Pod NetBotz IP Network Email, SNMP, HTTP, FTP NetBotz Rack Access PX NetBotz Sensor Pod Temp Sensor Key Features Works seamlessly with existing IP networks Distributed architecture Easy to install appliances and sensors Integration with enterprise network managers Centralized management Camera Pod Fluid Sensor Protect Switched PDU Output Relay Pod

Conclusion

Conclusion Every Server room is different, there are cooling solutions that can address your current and future needs. Your data centre s Network Critical Physical Infrastructure (NCPI) must support dynamic processing In-row, close-coupled cooling maximises efficiency Cooling system audit increases availability and reduces TCO of existing systems High-density server deployment requires unique cooling and power solutions Management of the physical infrastructure layer is crucial to IT availability

APC Trade-UPS Help protect the environment You can trade-in your single phase UPS regardless of make, model or working condition for a brand new UPS and receive a rebate!* The 3 easy steps to improved power protection 1. Tell us what you have: 2. Advise us of your choice of replacement UPS: 3. Register Trade-UPS Website link -> http://tradeups.apcpacific.com/au/ Receive a rebate!* FREE return shipping of old units FREE environmentally friendly disposal of your old UPS * Terms & Conditions apply.

Learning more about data centre cooling Data Centre University Courses are free for a limited time Visit www.datacenteruniversity.com/promo Vendor neutral education on data centre design and operation Courses available include: Calculating Total Cooling Requirements Fundamentals of Cooling Architecture Fundamentals of Cooling, Part 1 Fundamentals of Cooling, Part 2 Advantages of Row and Rack Oriented Cooling Architecture I Advantages of Row and Rack-Oriented Cooling Architectures II Optimising Cooling Layouts for the Data Centre

Thank you Contact Details Name: George Lantouris Client Relationship Manager (Public Sector) Level 4, 65 Berry Street, North Sydney NSW 2060 Phone (02) 8923 9385 Web www.apc.com Email george.lantouris@apcc.com ABN 70 088 913 866