Overview of Alaska Energy Markets and System Performance

Similar documents
Peer Review Draft. Alaska Isolated Wind-Diesel Systems Performance and Economic Analysis

Alaska s Experience in Renewable Energy Development. Gwen Holdmann, Director Alaska Center for Energy and Power University of Alaska Fairbanks

Wind-Diesel System Design and Equipment

AN ASSESSMENT OF HYBRID DISTRIBUTED GENERATION SYSTEMS IN RURAL ALASKA

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

Alaska Rural Energy Conference April 30, Brent Petrie, Retired Alaska Village Electric Cooperative

Emerging Energy Technology Denali Commission. Denali Daniels and Jason Meyer September 27, 2011

Wind power project size and component costs: An Alaska case study

Integrated Microgrid Technologies

Feasibility of Renewable Energy Based Distributed Generation in Yanbu, KSA

Scott Haase, NREL Ian Baring Gould, NREL. April 25, 2016

Remote Energy Solutions in Alaska

Reducing the High Cost of Alaska s Rural Water Systems. Eric Hanssen, P.E., LEED AP Senior Energy Project Manager ANTHC Rural Energy Ini?a?

2 Northern Realities

The Alaska Village Electric Load Calculator

Wind-Hydrogen-Diesel Energy Project. Greg Jones Manager, Business Development September 15, 2010

WIND ENERGY IN COLD CLIMATES IEA TASK 19

Alaska s Electric Energy Providers

Integration of renewables and reliable power supply in Alaska

Wind-Diesel Efficiency and Life Cycle Cost Analysis using Simulink

Rural Energy Conference Fairbanks, Alaska Brad Reeve General Manager Kotzebue Electric Association Inc.

The Alaska Village Energy Model: An Integrated Community Energy Planning Tool

American Wind Energy Association s Global Windpower 2004 Conference March 30, 2004

FEDC Weekly Energy Presentation July

Alaska Energy Statistics Final Report

The Future of Wind for the Arctic. Mark Peebles Business Development Manager Remote Communities

Energy Storage & Electric Vehicles Northern Perspectives, Regional Opportunities

An Energy perspective

Best Practices in Wind Energy Feasibility and Concept Design. How to get started Rich Stromberg - Wind Program Manager

Wind-Diesel R&D at Natural Resources Canada 2009 Wind-Diesel Workshop Ottawa, Ontario, June 2, 2009

MORE THAN A PIPE DREAM

Arctic Remote Energy Network Academy (ARENA) Case Study. Alaska Rural Energy Conference Tyler Kornelis

Alaska Village Electric Cooperative, Inc. DISPATCHABLE LOADS IN WIND / DIESEL SYSTEMS By William Thomson

USAP, AntNZ, Meridian Energy, Powercorp, RPSC, DOE-NSF Collaboration & The Ross Island Wind Project

INTEGRATION OF RENEWABLE ENERGY SOURCES AND HYDROGEN STORAGE IN PORTO SANTO. Neven Duić Maria da Graça Carvalho Instituto Superior Técnico

GRID MODERNIZATION INITIATIVE PEER REVIEW

By Energy Specialist - Walter H Rose Kawerak Inc., Nome Ak Alaska Rural Energy Conference, September 28, 2011

Hybrid Power Systems & Storage

Pablo Astorga, ABB, June Key considerations for island renewable microgrid development. ABB Slide 1

Rural Energy Initiative

PNWER Annual Summit Energy Solutions Portland, OR July 24, John Glassmire Director of Energy Engineering. Clean Power Everywhere

Alaska Energy Authority

Cold climate performance study of 89 wind farms,

American Samoa Renewable Energy Committee

COMMUNITY WIND TOOLKIT: A Guide to Developing Wind Energy Projects in Alaska

OPTIMISING THE INTEGRATION OF HYDROGEN USAGE WITH INTERMITTENT ENERGY SOURCES

Hydrogen Applications for Small Islands

AEA - Kodiak Electric Association Terror Lake Hydroelectric Facility Expansion


Application of Flexible Thermal Loads for Balancing Renewable Energy in Cold Climates

Schedule 2 TECHNICAL INFORMATION

Project Corvo: The new paradigm of a sustainable energy system

Microgrids: Distributed Controls Perspective

Results-Driven Research for Alaska

RENEWABLE ENERGY SYSTEMS HYBRID ENERGY SYSTEMS APPLICATIONS

NANA Region & The Northwest Arctic Borough. Comprehensive Energy Planning for a Sustainable Future

Renewable Energy: Policy options & integration issues

ELG4126 Distributed Generation. in Electric Power Systems

Clean Energy in Rural Alaska: The Good, the Bad, the Ugly

Meridian Energy presentation to UBS Australasia Conference

Renewable Energy Policy: A Driving Force

Renewable Energy Powered Greenhouses A Concept Paper, March 2011

SECURED POWER SUPPLY THROUGH HYBRID ENERGY SYSTEMS

The program works actively with industry to remove the barriers to the implementation of wind technology.

Optimal Break-Even Distance for Design of Microgrids

Integrated Village Energy Systems for Remote Alaska

Peter Lilienthal, Ph.D.

Large-Scale Integration of Variable Renewable Energy: Key Issues and Emerging Trends. Jessica Katz 29 March 2018

Study of Using Energy Storage to Mitigate the Impact of High Renewable Energy Penetration to the Grid

High Renewable Energy Penetrations in Isolated and Remote Area Power Systems

The Electronic Newsletter of The Industrial Refrigeration Consortium Vol. 15 No. 2, 2015

Wind Energy Basics & Project Cycle

Integrating Mining & Renewable. Michel Carreau, Ph.D., AHK, February 6, 2015.

Path to Economic Sovereignty: Arctic Opportunities

Lecture 13 Distributed Generation Rev ME 430 Thermal Systems Design

Technology Overview. Jimmy Salasovich, NREL October 28 th 31 st, 2013

Solar PV, Wind, and Storage System Design. Ilya Chernyakhovskiy, NREL April 26, 2018 Dushanbe, Tajikistan

Fort Chipewyan Community Energy Baseline

Workshop on photovoltaics, grid Integration and funding of the next wave of PV expansion in Cyprus, 13 December 2016.

Green Tags for Alaska Buying and Selling the Environmental Attributes of Renewable Energy

DER-CAM. Overview and Applications A N A LY T I C S P L A N N I N G O P E R AT I O N S

Overview of Wind and Solar Power Forecasting

R&D and Market Review of Wind Turbines in Cold and Icing Climates A Report from the IEA Wind Task 19, Wind Energy in Cold Climates

National Renewable Energy Laboratory

Microgrid Planning and Design MCAS Miramar, US Air Force Academy, and Fort Carson

Energy : Expanding Clean Energy and Energy Efficiency Manitoba Helping the World

JP Pinard, PhD, P.Eng. Presented at Yukon Energy s Wind Workshop 18 March 2013

P = 0.5 ρ v 3. P = 0.5 ρ v 3 Cp A S 5/27/2009 TOPICS ENERGY AND POWER. Power in the Wind. Power from the Wind. ENERGY: The Ability to do work

On the Path to SunShot: Emerging Issues and Challenges in Integrating High Levels of Solar into the Electrical Generation and Transmission System

Wind Energy Basics & Project Cycle

Hawaii-Okinawa Partnership: Smart Grids for High Penetration Renewble Energy

DESIGN AND MODELING OF DISPATCHABLE HEAT STORAGE IN WIND/DIESEL SYSTEMS

Wind Energy: Retrospective, Prospective and the Role of Universities

Establishing a Transitional Framework for Generation Development in Central America NESTOR SANCHEZ I BUSINESS DEVELOPMENT MANAGER

Distributed CHP Challenges and Opportunities in Remote Communities

Village Economic Development. Indian Country Energy and Infrastructure Working Group September 21, 2017 Washington, DC

Integrating Renewables and the Smart Grid

The Role of Microgrids in Grid Modernization Initiatives Sima Seidi Principal Consultant, Microgrids and Distributed Energy Resources Tetra Tech

Savoonga Final Report

Leading Insights into Solar

Transcription:

Overview of Alaska Energy Markets and System Performance 2009 International Wind Diesel Workshop Ottawa, Canada E. Ian Baring-Gould National Renewable Energy Laboratory June 1-2, 2009 NREL is a national laboratory of the U.S. Department of Energy Office of Energy Efficiency and Renewable Energy operated by the Alliance for Sustainable Energy, LLC

Alaskan Market Potential National Renewable Energy Laboratory Study by Dabo of the Alaskan Energy Authority showing rural communities with high likelihood of economic wind potential 116 communities have a strong wind potential Rural communities have a potential between 90 & 240 MW of installed capacity $150 M USD renewable energy fund supporting RE projects and assessments

National Renewable Energy Laboratory Alaska Energy Report Provides initial assessment of energy options for most Alaskan rural communities www.aidea.org/aea

Alaska Renewable Energy Fund At the point of high oil prices State Legislators approved a new State fund to support the deployment of renewable energy technologies: Target of $50M USD a year for 5 years Initial year (Round 1) funded with $100M USD in late summer of 2009 Solicitation conducted in the fall of 2008 for round 1 and round 2 projects Projects reviewed by AEA Projects selected by the Legislator National Renewable Energy Laboratory Round 1 Funding provided $47.7M USD for wind projects or development support for 21 wind project, 18 of which were wind-diesel applications. Contracting on these projects currently underway Round 2 Identified 14 additional wind projects for support, 13 off grid, totaling over $14.6M USD

Alaska Wind Projects Current Alaska Wind Diesel Projects Hooper Bay AVAC 4xNW100 Kasigluk Kotzebue Nome Local 18-EW50 s Saint Paul Savoonga - AVAC 2xNW100 Selawik Toksook Bay Wales Additional projects being implemented Chevak AVAC Tin City TDX Power Kodiak - KEA Gamball - AVEC Kong & Kwig - Chininik Wind Group National Renewable Energy Laboratory

National Renewable Energy Laboratory Photo Credit: Kotzebue Electric Assoc. Photo Credit: Kotzebue Electric Assoc. Kotzebue, Alaska Large coastal hub community in Northwestern Alaska with a population of ~3,100 Operated by Kotzebue Electric Association 11 MW installed diesel capacity 2-MW peak load with 700-kW minimum load 915-kW wind farm comprised of 15, Entegrity e50, 50 kw; 1 remanufactured V17 75 kw; and 1 NW 100/19, 100-kW wind turbine. Instantaneous penetrations regularly above 50% Turbine curtailment used to control at times of high wind output Wind turbine capacity factor of 13.3% Average penetration of ~5% with wind generating 1,064,242 kwh in 2007 Diesel fuel saving of more than 71,500 gal (270,600 l) in 2007 Good turbine availability (92.8% 1/02 to 6/04) due to strong technical support

Selawik, Alaska Coastal community in Northwestern Alaska with a population of ~840 permanent residents Operated by the Alaska Village Electric Cooperative Average load around 330 kw 4 Entegrity e15, 50 kw turbines with thermal load used to help support system control Turbines installed as part of a complete diesel plant retrofit project Initial reduced wind performance due to a number of issues low wind resource, system integration issues, and turbine maintenance problems Average Capacity Factor of 8.6% with an estimated fuel savings of 20,400 gal from Jan 06 to Aug 07 07 PCE states a Capacity Factor of 10.5 while no data is given for 2008

Kasigluk, Alaska Y-K community with a population of ~540 Power system operated by the Alaska Village Electric Cooperative Average load 240 kw 3 NW100kW turbines and resistive community heating loads Installed in the fall and winter of Summer/fall of 2006 Just over 22.4% average wind penetration with much higher instantaneous penetration Over 40 MWh monthly average wind generation, saving ~3000 gal/month First year turbine availability of 94.0% - currently under warrantee Average Net Capacity Factor of 24.06% from Aug 07 to July 08 PCE 07 Capacity Factor 14.7 (14.76% of load for 8 months of operation)

National Renewable Energy Laboratory Toksook Bay, Alaska Power system that supplies the ~800 people of the communities of Toksook Bay and Nightmute in coastal Southwest Alaska Power system operated by the Alaska Village Electric Cooperative Average load just under 370 kw (both Toksook and Nightmute) 3 NW100-kW turbines and resistive community heating loads Installed in the fall and winter of 2006 24.2% average wind penetration with much higher instantaneous penetration Almost 700 MWh generated by wind last year, saving almost 46,000 gal (174,239 l) of fuel First year turbine availability of 92.4% - currently under warrantee Average net capacity factor of 26.0% from Aug 07 to July 08 Photo Credit: Northern Power Systems Photo Credit: Northern Power Systems

National Renewable Energy Laboratory St. Paul, Alaska Airport and industrial facility on the island of St. Paul in the Bering Sea Owned and operated by TDX Power High-penetration wind-diesel system; all diesels are allowed to shut off One Vestas 225-kW turbine installed in 1999 and two 150-kW diesel engines with a synchronous condenser and thermal energy storage Current average load ~70kW electrical, ~50kW thermal Since 2003, net turbine capacity factor of 31.9% and a wind penetration of 54.8% System availability 99.99% in 2007 In March 2008, wind supplied 68.5% of the facility s energy needs and the diesels only ran 198 hours ~27% of the time. Estimated fuel savings since January 2005 (3.5 years) is 140,203 gal (530,726 l), which at $3.52/gal is almost $500k Annual fuel saving between 30% and 40%

Wales, Alaska Remote coastal community in northwestern Alaska with a population of about 150 Average load of around 70 kw Two AOC 15/50 wind turbines High-penetration wind diesel with the ability to operate with all diesels turned off using short-term NiCad battery storage with a rotary converter to control frequency and voltage Resistive loads used for heating and hot water System has had many problems associated with complexity, maintenance, and confidence of the local population to operate with all diesel engines offline Operated by Alaska Village Electric Cooperative with the implementation assistance of Kotzebue Electric Association and NREL Photo Credits: Steve Drouihet, Sustainable Automation Photo Credits: Steve Drouihet, Sustainable Automation Photo Credits: Steve Drouihet, Sustainable Automation National Renewable Energy Laboratory

Alaska Focused Advances Alaskan projects are still Secondary dispatchable loads Ice making Electric or hybrid electric vehicles Electric heating through thermal loads Waste heat based power generation Alternative storage options Wind Diesel Applications Center (WiDAC) Advancements in software models Improved foundation design for arctic areas New ownership models including power purchase agreements Resource assessment programs Expanded intrest in pushing up wind penetrations There are still limitations System to report and publicize data from W-D applications Vocal opposition to wind development in rural Alaska Limited track record on wind-diesel National Renewable Energy Laboratory

Carpe Ventem! E. Ian Baring-Gould National Wind Technology Center & Deployment & Industrial Partnerships Centers 303-384-7021 Ian.baring.gould@nrel.gov NREL is a national laboratory of the U.S. Department of Energy Office of Energy Efficiency and Renewable Energy operated by the Alliance for Sustainable Energy, LLC