UC Irvine Energy Efficiency Energy Storage Energy Optimization. Matt Gudorf CEM, LEED AP Assistant Director Energy, Engineering, and Inspection

Similar documents
UCI MICROGRID. Figure 1 University of California, Irvine Microgrid Green Ring: Central Park; Purple Ring: Utility Tunnel

Benefit Analyses of Irvine Smart Grid Projects N. KARALI, B. SHAFFER, K. CLAMPITT, A. ZHU, R. YINGER, C. MARNAY. Southern California Edison USA

Start to Finish Campus/Base

Alternative Energy Concept Plan San Bernardino Community College District

Midwest Energy Policy Conference

2. Chilled Water Storage: A 4.4-million gallon chilled water storage tank improves Cornell s ability to meet peak cooling needs.

A. Cornell s district energy systems include the following components:

Matt Gudorf Campus Energy Manager. Page 1

William V. Torre Center for Energy Research University of California - San Diego

ESCO Industry Perspective

MISO Distributed Generation (DG) Presentation. October 27, 2015

LOUISIANA STATE UNIVERSITY COMPREHENSIVE & STRATEGIC CAMPUS MASTER PLAN. APPENDIX N - Campus Utilities Assessment Findings

Princeton University Facilities Engineering

!"#$%&"#'"$( (% +, -

MicroGrids and CHP. September 8, 2016

University of Illinois at Chicago

Ultra-Clean Efficient Reliable Power

Tim A. Hansen, P.E. Southern Research Institute NDIA E2S2 May 2012

Optimizing Clean Energy Systems with Thermal Energy Storage and/or Turbine Inlet Cooling

Solar Thermal Optimization for District Hot Water through Energy Modeling

6 Cost Analysis. Table 6.1 Initial System Costs

Exploring a University Based Microgrid

Presented by: Mike Buter Operations Manager

COGENERATION SYSTEM INTRODUCTION

Optimization of a Cogeneration System in the Automotive Industry

THERMAL ENERGY STORAGE OVERVIEW

Big Batteries that Enhance Turbine Inlet Cooling Systems

Packaged AHR (Advanced Heat Recovery) Systems for Engines, Gas Turbines, & Industrial Waste Heat. Tom Pierson

Dynamic Pricing. June 2, 2016 Harvard s Electricity Policy Group

Sustainable Energy at Cornell

Microgrids are about energy supply and demand management at any scale

MONITORING AND DATA COLLECTION FOR DISTRIBUTED GENERATION/ COMBINED HEAT AND POWER (DG/CHP) SYSTEMS AT ALLIED FROZEN FOODS BROCKPORT, NEW YORK.

Chilled Water Energy Savings Study

A TECHNOLOGY FOR TODAY. Atlanta 2010

Matt Gudorf UCI Energy Manager

Ivory Tower of Power. By Byron Washom, John Dilliot, David Weil, Jan Kleissl, Natasha Balac, William Torre, and Chuck Richter

Mechanical Project Proposal

A STUDY OF ABSORPTION CHILLER/HEATER APPLICATION IN MARINE ENGINEERING

I think the team at Parris Island, with this ESPC, may have just redefined a 'deep energy retrofit! TECHNOLOGY TYPE FACILITY SIZE

CHILLED WATER THERMAL ENERGY STORAGE NEW MEXICO

Irvine Ranch Water District Battery Energy Storage Program. Association of California Water Agencies November 30, 2016

8/26/ Sign in 2. Fill out the evaluations 3. Candy Hander Outer 4. Time Keeper 5. Flip Charter 6. Ask Questions

Why Distributed Energy Systems Becoming More Popular in Remote Areas, City Districts and Industrial Facilities ACEF 2017, Decentralized Energy Systems

Advanced Energy Community Oak View, Huntington Beach, CA Sustain OC 8 th Annual conference & Expo

DIVISION OF ADMINISTRATION UTILITIES & ENERGY SERVICES. David Payne, P.E Interim Associate Director October 16, 2012

Application of Steam Turbine Driven Chillers in CHP/DES System

Welcome. Bluegrass ASHRAE Chapter Annual Spring Seminar

Cornell Energy Resources

APEP RESEARCH EXAMPLES

Campus-Wide Cooling Plant Load Analysis & Thermal Energy Storage (TES) System Concept Engineering Study

Explanation of JCM Feasibility Study in Thailand & Applicable Low CO2 Emission Technology

UC Davis Microgrid. Jared Balavender, DTU Katarina Knezovic, DTU Adrian Unkeles, UCSC Yingying Zheng, UCD

CHILLED WATER PRODUCTION SUB-ELEMENT

Case Studies and Approach

Energy Storage in Alaska Today. David Lockard PE Alaska Energy Authority September 27 th, 2011

Energy Efficiency and Security: Still Important in a World With Low-cost Fuel. E360 Forum Chicago, IL October 5, 2017

Applying Geothermal Technology for Large Scale Projects

Absorption Chillers in Industry

Microgrid Islanding with CHP The Evolution of a Project

December 13, 2012 Energy Efficient Cooling Information Service Webinar Series Christine Brinker and Gearoid Foley CHP with Absorption Chilling

Demand Response Association of Energy Engineers. Presenter: David Wylie, P.E. ASWB Engineering

Gavin Dillingham. USGBC Energy Summit

Energy Upgrade Screening Study

Microgrid And Smart Grid Activities At SMUD

PRESENTATION BY: Sean P. Murray Energy/Facility Use Manager St. Lucie County Public Schools. Art Munns Senior Project Engineer OCI Associates, Inc.

Energy Reliability. Economics. Energy Security. Economic Development. What is Your Critical Issue? Earthquakes. Protect Research. Hurricanes 8/13/2013

Realizing a Renewable Energy Future through Power-to-Gas

Thermal Energy Storage (TES) Systems in Educational Facilities

Knowledge is Power Belimo Energy Valve CHW DELTA T MITIGATION STUDY AHR Expo Innovation Award Winner in the Category of Building Automation

Energy Systems for Island Resilience Case Study : Guam

Outline Chilled Water T Study AHU Coil Overview Cooling Overview Test Setup Data Analysis Findings Summary

Tim A. Hansen, P.E. Southern Research Institute NDIA E2S2 May 2012

HVAC Variable Speed Pump Control System Diversity

Gainesville Regional Utilities: Reciprocating Engine CHP

3 Mechanical System Redesign

2017Annual Energy and Utilities Report

Thomas F. Edgar University of Texas-Austin NSF Workshop on Shale Gas Monetization Montgomery, TX, March 27, 2014

Advanced Solar Thermal (AST) SOLID Energy, Inc.

Enhancing Competitiveness, Increasing Reliability and Reducing Emissions with Combined Heat & Power

Heat Recovery. Integrated CHP Systems Corp.

Fuel Cells: The Clean Energy You Count On Gas Policy Conference APGA/SGA

University Medical Center at. Healthy Success: Hospital energy system showcases best practices. Feature Story

OSU Cascades Net Zero Campus. Recommendations

Thesis Final Presentation

Demand Side Management Programs

ADVANCED ABSORPTION CHILLER CONVERTS TURBINE EXHAUST TO AIR CONDITIONING

Clemson University's Central Energy Facility and Energy Systems Laboratory An Integration of Operations and Academics

Installing a New 6 MW CHP System In An Existing District Energy Plant. IDEA 2013 Campus Energy Conference

SUSTAINABILITY An Energy & Emissions Case Study

Energy Storage for Industrial Buildings. Ankush Halbe October 20 th 2016 NY-BEST Energy Storage Conference Syracuse, NY

Oakland University Annual Energy Report Fiscal Year 2009

Energy Auditing for Schools. Maryland Energy Administration Eric Oliver, EMO Energy Solutions, LLC May 10, 2007

Net Zero Energy Installations

Energy & Climate Action

California Department of Public Health

Texas Hospital. Central Plant Redesign. Central Utility Plant SECOND PLACE HEALTH CARE FACILITIES, EXISTING 2013 ASHRAE TECHNOLOGY AWARD CASE STUDIES

Energy System Terminology

Florida Energy Summit Eight Flags Energy, LLC Combined Heat and Power (CHP) Plant

Strategic Energy and Water Annual Report

Monitoring Plan for the. Cornell Combined Heat and Power Project (CCHPP) October 2008

Transcription:

UC Irvine Energy Efficiency Energy Storage Energy Optimization Matt Gudorf CEM, LEED AP Assistant Director Energy, Engineering, and Inspection

Quick Facts Established in 1965 Comprehensive Research University 13 Lab buildings past two decades 8-24MW Load 1,526 Acres 10M+ Square feet 7.5M Sqft District Utilities 24,489 Undergraduates 6,268 Postgraduates $20,754,196 Utility Budget

PROCUREMENT ELECTRICITY Distribution Service by SCE TOU-8-S Departing Load Direct Access Cost Responsibility Surcharge Generation Purchased through an energy service provider (ESP) Day ahead market NATURAL GAS Commodity DGS contract with BP Buy futures up to 75% NYMEX Henry Hub CA Citygate price Delivery SoCal Gas CA border to UCI Distributed Generation Power Purchase Agreements 20 and 25 year contracts Predetermined rates and escalation Key: Flexibility with managed risk

Campus Utilities Edison MacArthur Substation 66kV UCI Substation 66kV/12kV 4

Campus Utilities Central Plant: 8 chillers Gas turbine: 13.5 MW Steam turbine: 5.6 MW Edison MacArthur Substation 66kV UCI Substation 66kV/12kV

SOLAR TITAN 130 COMBUSTION TURBINE 13.5 MW AT 12,000 VOLTS

OLAR TURBINE ASSEMBLY BEFORE EING PLACED INTO ENCLOSURE

Campus Utilities Central Plant: 8 chillers Gas turbine: 13.5 MW Steam turbine: 5.6 MW TES Solar Rooftop PV 3.575 MW Edison MacArthur Substation 66kV UCI Substation 66kV/12kV

Social Science Parking Structure

Social Science Parking Structure 935kW Equivalent Generation in a year - 140 US Homes

Student Center Parking Structure

Student Center Parking Structure 725kW Equivalent Generation in a year - 110 US homes

Mesa Parking Structure

Mesa Parking Structure 909kW Equivalent Generation in a year - 136 US homes

Campus Utilities Central Plant: 8 chillers Gas turbine: 13.5 MW Steam turbine: 5.6 MW TES Solar Rooftop PV 3.575 MW Edison MacArthur Substation 66kV UCI Substation 66kV/12kV CPV 113kW

UC IRVINE S 12KV DISTRIBUTION SYSTEM 10 - Distribution circuits 136-12kV transformers 77 - SF6 Switches

Campus Utilities Central Plant: 8 chillers, 4 Boilers Gas turbine: 13.5 MW Steam turbine: 5.6 MW Solar Rooftop PV 3.575 MW Edison MacArthur Substation 66kV UCI Substation 66kV/12kV CPV 113kW

Campus Utilities Thermal Storage 4,500,000 Gal 60,000 Ton-Hour Central Plant: 8 chillers Serve 82 Buildings TES

BOILER DATA Boiler #1& #2 Babcox & Wilcox 250PSI 29,000lbs/hr, 1964 Oil & Gas Burner Boiler #3 - Nebraska 300PSI 30,000lbs/hr, 1970 Boiler #4 - Trane Murray 300PSI 30,000lbs/hr, 1978

Chiller Plant Details Manufacture Rating in Tons Refrigerant Year Installed Chiller #1 Trane 1000 R-123 1992 Chiller #2 Trane 1000 R-123 1997 Chiller #3 Trane 1000 R-123 1997 Chiller #4 York 2000 R-134a 2002 Chiller #5 Trane 2500 R-123 1999 Chiller #6 Trane 2500 R-123 2004 Chiller #7 York 3000 R-134a 2007 Chiller #8 York 3000 R-134a 2007 16,000 Tons of nominal chiller capacity

Chilled Water System AHU coils designed for 39 F supply System ΔT of 20-23 F PIC-V or Flow Limiters at each AHU Average load 3,100 tons Peak load 13,000 tons 74,400 Ton-Hours per day Flow Capacity @ 30 header is 35,600 gpm Secondary pump capacity 25,200 gpm @ 100 feet of head TES pump capacity is 22,700 gpm @ 90 feet of head Delivered 0.7kW per ton

Chilled Water Load Side Optimization 1997-2016 the campus changed out AHU coils to provide a ΔT minimum of 20 F. The system makes use of Pressure independent control valves and flow limiters to minimize use and maximize energy efficiency Monitoring the hydronic system at the building level

Thermal Energy Storage Tank holds 4.5 million gallons of chilled water Tank is 107 tall by 88 in diameter When chilled to 39 F, rated storage is 186,400 kwh 0-8MW of load can be shifted Originally built to shift load to off-peak rates

UC Irvine Drastically Reduces Load 45%

Operating Limitations 1 The interconnection agreement is for inadvertent export of power only. 2 Curtailment of the CTG is limited to 7.5MW due to emissions 3 Solar power production cannot be curtailed (PPA) 4 Efficiency of the CTG drops as output is reduced 5 Import electricity cost more than self generation Load Generation Import Electricity So how is the near perfect management as shown on the right achieved? UC Irvine uses TES as an electrical battery to flatten and shape load to match generation!

Balancing Load and Generation 909 kw Solar Rooftop PV (Mesa Parking) 725 kw Solar Rooftop PV (SC Parking) 935 kw Solar Rooftop PV (SS Parking) UCI Campus TES 13.5 [MW] GT 4.5 [MW] ST 3,575 [KW peak ] PV 66 [KV] circuit Ten 12 [KV] circuits 7 Electric Chillers Storage Central Plant NGCC PV SCE Load GT = Gas Turbine ST = Steam Turbine NGCC = Natural Gas Combined Cycle SCE = Southern California Edison

MONITORING THE MICROGRID Generation Import Combustion Turbine Steam Turbine Solar PV Load Plant Building Sub Building Circuit Building Management HVAC Lighting Storage Tank Charge Over 100,000 data points Trend, Analyze, Optimize

0-18 MW Ideally, utilize the chillers and TES to flatten the load shape PV drops off, peak cooling demand Morning Building Load Solar PV 24 Hours

0-18 MW Flattest possible load shape Matched to Generation Utilize Solar Maximize Base Loaded CTG Import as little as possible 24 Hours

Actual Load and Generation Graph From UCI Campus

Financial Savings Energy Cost Per Square foot $1.80 $1.60 $1.40 $1.20 $1.00 $0.80 $0.60 $0.40 $0.20 $- 2008 2009 2010 2011 2012 2013 2014 2015 Optimization of load and generation results in financial savings Minimal import of expensive electricity Solar offsetting peak demand

Next steps Implement a ½ MW, 2 MWh battery (In construction) Deploy full SCADA system from SEL across campus grid (In construction Engineer, implement, and test islanding of the campus Additional optimization of the balance between, load and generation