Metrics That Matter: Pam Greenley MIT EHS Associate Director greenley@mit.edu. Steve Lanou MIT Deputy Director, Sustainability slanou@mit.



Similar documents
Continuous Energy Management at UC San Diego. Anna Levitt, P.E. Assistant Energy Manager June 13, 2013

Sustainable Smart Laboratories

SPECIAL ISSUE: NATIONAL SCIENCE FOUNDATION WORKSHOP

UNIVERSITY OF MISSOURI Heating Ventilating and Air-Conditioning (HVAC) March

GREEN DATA CENTER DESIGN

Green Buildings Guidelines for Harvard

Cornell University Chilled Water Best Management Practices Program

VAV Laboratory Room Airflow The Lowdown on Turndown

Printing and Publishing Energy Savings Guide

HVAC Systems: Overview

Presentation Outline. Common Terms / Concepts HVAC Building Blocks. Links. Plant Level Building Blocks. Air Distribution Building Blocks

Collaborative Laboratory Commissioning and Sustaining the Optimal Building. By E. Lon Brightbill, P.E Facility Dynamics

Rev. No. 0 January 5, 2009

ENHANCED LABORATORY HVAC SYSTEM

Energy-Efficient Laboratory Design

Energy Action Plan 2015

ALBUQUERQUE PUBLIC SCHOOLS Facility Design & Construction / Maintenance & Operations

The Green Labs Symposium Driving Lab Sustainability in the Boston Area

Enclosed Football Stadium Design History and Lessons Learned

ENERGY AUDITS AND RETRO- COMMISSIONING Local Law 87

Building Energy Systems. - HVAC: Heating, Distribution -

The main steam enters the building in the basement mechanical room; this is where the condensate line also leaves the building.

EnergyPro Building Energy Analysis. Assisted Living Building

PPS Energy Management Program. Report to Board of Education June 4, 2012

Example Retrocommissioning Measure: Opening Throttled Discharge Valves

TEXAS A&M UNIVERSITY Utilities & Energy Services

Design Guide. Retrofitting Options For HVAC Systems In Live Performance Venues

Active & Passive Beams

GSA Green Initiatives. NEBB Annual Conference October 22, 2011

LABORATORY DESIGN HANDBOOK

Sample - Existing Building Commissioning Plan

SAM HOUSTON STATE UNIVERSITY

Fan Applications & System Guide

SECTION A... 3 SECTION B... 7

The ASHRAE HQ Building Can the energy efficiency of the different mechanical systems really be compared? RESIDENTIAL LIGHT COMMERCIAL COMMERCIAL

REAL OPERATING COST SAVINGS FROM RETRO- COMMISSIONING OPPORTUNITIES FOR SAVINGS IN ACADEMIC MEDICAL CENTERS

Metrics for Energy Efficiency

University of Maryland College Park District Energy System. IDEA Campus Energy Conference February 9, 2012

KU DESIGN GUIDELINES APPENDIX XVI RECOMMENDED BAS I/O CONTROL POINTS BY EQUIPMENT / SYSTEM

HVAC Processes. Lecture 7

Comparing Energy Savings of Different VAV Systems

Fume Hood Energy Conservation

Creating Credible, Actionable Energy Audits

Xcel Business Customers: Program and Rebate Summary

for Plans Examiners and Building Inspectors

Commissioning - Construction Documents (Page 1 of 6)

Displacement Ventilation in Schools

OPTIMIZING CONDENSER WATER FLOW RATES. W. A. Liegois, P.E. Stanley Consultants, Inc. Muscatine, Iowa

Carnegie Mellon University School of Architecture, Department of Mechanical Engineering Center for Building Performance and Diagnostics

Energy Efficiency Opportunities in Federal High Performance Computing Data Centers

Texas State University Utility Analysis. Sheri Lara, CEM, CEFP Texas State University Morgan Stinson, PE, LEED AP - EEA Todd Schmitt, PE, LEED AP EEA

Demand Based Static Pressure Reset Control for Laboratories

HEATING, VENTILATION & AIR CONDITIONING

3/29/2012 INTRODUCTION HVAC BASICS

Fläkt Woods Building Future

HOT & COLD. Basic Thermodynamics and Large Building Heating and Cooling

Passive Building Systems vs Active Building Systems and the Return On Investment

6 MECHANICAL HVAC SYSTEMS

ULTRA-EFFICIENT HVAC DESIGN AND CONTROL

L EED & G r e e n B u i ldi ngs

Advanced Energy Design Guide LEED Strategies for Schools. and High Performance Buildings

CHAPTER 8 HVAC (Heating, Ventilation, and Air-Conditioning)

Conservation Demand Management Plan London Health Sciences Centre Made for Ontario Regulation 397/11 Green Energy Act, 2009

HIGH PERFORMANCE CHILLED WATER SYSTEMS. EarthWise HVAC. EarthWise HVAC High Performance CHW Plants

EnerSmart Programs. enercase. Performance Contracting. contracting. Tired of. chasing capital for infrastructure upgrades?

HVAC Technologies for Building Energy Efficiency Improvements 2013 National Symposium on Market Transformation. Richard Lord Carrier Fellow

Training Engineers for Managing Intelligent HVAC Systems in Modern Office Buildings

1.2 Refrigerant Equipment. General

Geothermal Heat Pumps: A Pathway to Zero Net Energy (ZNE) for Schools, Homes and Businesses

CENIC 2009 Conference

Cx for Enhanced Healthcare Project Delivery. Presentation Format. Project features and timeline

Methods for Effective Room Air Distribution. Dan Int-Hout Chief Engineer, Krueger Richardson, Texas

Energy Conservation Action Plan

HVAC Checklist - Long Form

Energy Audit Data Collection Form

HVAC Basic Science - System Capacity

Dual Maximum VAV Box Controls

We ve got you covered.

CETA Application Guide for the Exhaust System Requirements of Class II, Type B Biosafety Cabinets CAG March 24, 2010

Energy Efficiency in Industrial HVAC Systems


Sample DTE Energy Rebate Programs Follow:

HVAC Costs. Reducing Building. Building owners are caught between two powerful forces the need to lower energy costs. By Stephen J.

Renewable Solid Fuel Boiler Project

Presentation to Senate Select Committee on Government Facilities: Deferred Maintenance for State Supported Living Centers and State Hospitals

Impact of Control System Technologies on Industrial Energy Savings

Case Study: Innovative Energy Efficiency Approaches in NOAA s Environmental Security Computing Center in Fairmont, West Virginia

Performing Arts Research/Lab Campus Life Athletics Student Housing Academics Campus Infrastructure Food Services

How To Improve A School In Ancient Ginghamshire

Department of Environmental Health and Safety & Emergency Management

FY09 PERFORMANCE PLAN Office of Property Management

The South Carolina Sustainable Universities Initiative and its impact on the University of South Carolina

Optimization of Water - Cooled Chiller Cooling Tower Combinations

apv heat exchanger APV ParaFlow Plate Heat Exchangers

Drives and motors. A guide to using variable-speed drives and motors in retail environments

Mechanical-Electrical Technology MECHANICAL-ELECTRICAL TECHNOLOGY Sacramento City College Catalog

CCC/IOU Energy Efficiency Partnership and Campus Budget Challenges

Condensing Boiler Efficiency

Texas A&M University. usa.siemens.com/tamu

Dallas/Fort Worth International Airport District Energy Plant Upgrades Project Making More with Less Sustainable Communities Conference Dallas, TX

Transcription:

Metrics That Matter: Energy Efficiency in Laboratories Pam Greenley MIT EHS Associate Director greenley@mit.edu Steve Lanou MIT Deputy Director, Sustainability slanou@mit.edu

Today Measuring progress of diverse sustainability programs Energy efficiency with EHS in labs A novel approach for measuring and monitoring - from O&M to EE An ideal lab design scenario for maximizing efficiency and safety

What Does Campus Sustainability Mean at MIT? Minimizing our campus energy and environmental footprint Building and supporting our local community Leading by example sharing results Creating a learning laboratory mens et manus Enabling and facilitating broader community goals

Translating Sustainability Into Action Power Production Conservation & Efficiency Sustainable Design Transportation & Operations Waste, Recycling & Composting Community Engagement Educational Opportunities

Current Metrics of Sustainability

Current Metrics of Sustainability

Energy Efficiency Success to Date Utilities purchased for FY12 $30M = < 3% of overall operating budget MIT ENERGY REDUCTION HISTORY update July 27,2012 ENERGY EFFICIENCY MEASURES SAVINGS in mmbtu (million btus) FY2007 FY2008 FY2009 FY2010 FY2011 FY2012 Totals Lighting 2,880 925 5,333 4,640 8,062 Steam Traps 27,551 23,796 Continuous Commissioning 10,777 36,393 Variable Speed Drives NW35 5,360 CUP New chillers, Boiler 9, air compressor 10,836 3,216 New buildings Koch, E62, E60, W1 25,447 6,934 Demand ventilation and VSD Hayden Library 6,263 2,284 W70 replace chiller 3,300 46 Air change rate reduction 3,458 NW12 Cooling Loop 2,561 Residence Hall Refrigerator replacement 1,024 Cumulative Energy Savings TOTAL EEMs (mmbtu) 30,430 23,796 11,701 41,725 52,545 30,839 191,038 $$ annual savings $ 570,800 $ 376,413 $ 151,111 $ 614,000 $ 1,793,000 $ 993,940 $ 4,499,264

You can t build your way out 3,500,000 3,000,000 2,500,000 New Buildings AvoidedEnergy Use from New Building Efficiency Reduced Energyin Existing Buildings from EE MMBTUs 2,000,000 1,500,000 NEW BLDGS Code vs As Designed ENERGY EFFICIENCY MEASURES NEW BUILDINGS EXISTING BUILDINGS 1,000,000 Existing Buildings 500,000 Campus Energy Delivered to Buildings - 2003 2004 2005 2006 2007 2008 2009 2010 2011

Building 18: Collaborative Experimentation

Building 18 Fume Hood Face Velocity Reduction Worked collaboratively with EHS experts to determine appropriate optimization of safety and efficiency Collaborated with leading faculty and researchers Tested range of face velocity rates Consensus rate of 80 feet per minute rate identified Recalibrated 130 hoods in Building 18 to 80 fpm from 100 Building control software modified Air control valves reset Air diffusers adjusted and relocated Certified all hoods to ASHRE 110 standard Results Cost: $306,000 Estimated Annual Savings: $162,000 Simple Payback: 2 years Performance monitored via Cimetrics system Reduced rate now used in new facilities

Four Types of Projects for EHS Involvement New Lab Buildings Koch Institute Single Principle Investigator lab renovation Existing lab building energy conservation project Supervising undergraduate research projects

Koch Institute for Integrative Cancer Research Mission Integrating biological investigation with engineering technology 40 laboratories, 500 researchers 180,000 sq ft of research and work space 100 hoods, 70 bsc s 35% less energy use/ LEED Gold Research

KI Integrated Design Process EHS brought in early Facilities and EHS agreed to approaches Type of hoods Type of controls Face Velocity Heat Recovery Challenged rules of thumb

Final Lab Ventilation Design EHS related considerations VAV and CV hoods 80 fpm, 18-inch sash height (60 in future) Occupied 6 ACH or hood min Unoccupied 4 ACH or hood min Heat pipe for heat recovery

Other Energy Saving Measures ACH driven by heat load (design 9 w/sq ft, operates 4w/sq ft) Low duct velocity, 1200 vs 2000 feet per minute Segregation of freezers Cascading air from offices to labs Chilled beams in offices

Koch Institute Lessons Learned To Date Researchers questioned containment of quiet hoods Offices in Labs Occupancy sensors needed fine tuning

Looking Forward

MIT Comprehensive Stewardship Group

MIT Comprehensive Stewardship Group

MIT Comprehensive Stewardship Group

Comprehensive Stewardship Group

The Ideal Existing Lab Energy Common Goals Conservation Project Increase energy and material use efficiency Safer Labs (appropriate ventilation) Increased comfort and productivity More educated and engaged through lab level energy use info

Process Steps- Existing Lab Project Scope upgrade hoods, equipment, plenum exhaust with HR, offices out of labs Lab level risk assessment done to determine correct exhaust rates Renovate, Test, Verify Behavior change Set up Building User Group Design verified with computational fluid dynamics

Thank You! Pam: greenley@mit.edu Steve: slanou@mit.edu ehs.mit.edu mit.edu/facilities mit.edu/mitei/campus