Alaska
This Alaska State Summary educates policymakers and the public
about EERE investments and their positive impacts in Alaska.
Alaska’s Clean
Energy Resources
and Economy
• CleanEconomyJobs()
• AverageAnnualGrowthRateofClean
EconomyJobs(–)
• AverageAnnualWageofCleanEconomy
Jobs()
Alaskaisastateofrichanddiverseenergy
resourcesCurrentlyofitselectricityis
generatedfromhydropoweranditisoneof
onlyeightstatesgeneratingelectricityfrom
geothermalenergysources
Inadditionto
hydroelectricandgeothermalpowerAlaska
hassignificantwindresourcesalongitsvast
coastlines
Alaskaisalsohometomanyfuel
cellandbatterystoragesystemswhich—
alongwithotherdistributedgeneration
technologies—arewellsuitedtoservingthe
state’sruralpopulation
InAlaska’sleadershipsetambitious
goalsachievingrenewableelectricity
generationandanincreaseofinenergy
eciencypercapitaby
Tofurther
promoterenewableenergyandenergy
eciencydevelopmenttheAlaskan
RenewableEnergyGrantProgramintendsto
providemillionannuallyforrenewable
energyinstallationsandresearchthrough

Municipalitiesmayexemptresidential
renewableenergysystemsfromtaxation
Anenergy-eciencyrevolvingloansupports
energy-eciencyupgradesbypublicentities
whileutilityincentivesproviderebatesfor
residentialeciencyupgrades
The U.S. Department of Energy (DOE) is pursuing an all-of-
the-above approach to developing every source of American
energy. The Ofce of Energy Efciency and Renewable Energy
(EERE) leads DOE efforts to build a strong clean energy
economy, a strategy that is aimed at reducing our reliance on
foreign oil, saving families and businesses money, creating
middle-class jobs, and reducing pollution.
This strategy will position the United States as the global
leader in clean energy, increasing our nation’s competitiveness.
In 2012, $268 billion was invested globally in clean energy, a
500% increase since 2004.
9
Trillions of dollars will be invested
in the coming decades. Clean energy represents one of the most
important economic development races of the 21st century. We
face a stark choice—the clean energy technologies of tomorrow
can be invented and manufactured in Alaska and the rest of the
United States for domestic use and export around the world,
or we can cede global leadership and import those technologies
from China, India, Germany, and elsewhere.
2
Alaska State Summary: EERE Investments in Alaska
EERE and Alaska
EERE helps create Alaska’s clean energy economy today,
developing and delivering innovative, market-driven solutions
for the following:
Sustainable transportation – making transportation cleaner
and more efcient through solutions that put electric drive
vehicles on the road and replace oil with clean domestic
fuels
Renewable electricity generation – reducing the cost of
renewable energy through solutions that squeeze more
usable power from sustainable resources and improve
the economics of manufacturing and installation
Energy-saving homes, buildings, and manufacturing
developing cost-effective energy-saving solutions that
help make our country run better through increased
efciency—promoting better plants, manufacturing
processes, and products; more efcient new homes and
improved older homes; and other solutions to enhance
the buildings in which we work, shop, and lead our
everyday lives.
EERE Investments in Alaska
EERE invests in Alaska through a range of clean energy
projects, from energy efciency to hydropower, fuel cells, wind,
biofuels and biopower, and other technologies. EERE supports
cities, communities, and families to develop innovative, cost-
effective energy solutions through the research, demonstration,
and deployment activities we conduct with Alaska and its
businesses, universities, nonprots, and local governments.
Sustainable
Transportation
Low-Cost Production of Hydrogen and Electricity
Anchorage, Alaska
EERE investment: $2.4M
Atan airport in Anchorage, Alaska, EERE provided funds
to Bloom Energy in completing a one-year demonstration
oftwo 25-kilowatt fuel cells—providing valuable, real-world
data in one of the harshest environments on earth. Eachfuel
cell showedan impressive peak electrical efciency of more
than50%.The high operating temperature of these specic fuel
cells allows for a higher electrical efciency than lower tempera-
ture fuel cells, which a have a peak electrical efciency closer to
40% when operating on natural gas. In addition, a small-scale
electrochemical hydrogen pump was connected to an identical
25-kilowatt fuel cell system in Bloom’s laboratory to demon-
strate the coproduction of hydrogen and electricity.The gas
that is emitted by the fuel cell where the electricity is
generated is sent to the hydrogen pump, where the hydrogen
is then separated from the other gases, resulting in a pure
hydrogen stream.Data collected during the fuel cell demon-
stration and hydrogen pump validation testing, along with
subsequent analysis based on high-volume manufacturing,
shows the potential to produce low-cost hydrogen from natural
gas by simultaneously producing hydrogen and electricity.
1
1
2
2
3
3
4
4
A A
B B
C C
D D
HASZ CONSULTING, LLC
QUANTITY
TOLERANCES
DRAWN BY
PAGE
DRAWING TITLE
PROJECT NAME
DATE
APPROVED BY
PART NUMBER
THE DESIGN CONTAINED IN THIS
DRAWING WAS ORIGINATED BY
AND IS THE EXCLUSIVE PROPERTY
OF HASZ CONSULTING, LLC. IT IS
FURNISHED FOR CUSTOMER
INFORMATION ONLY, AND IS NOT
AN AUTHORIZATION TO MAKE
THIS CONSTRUCTION OR TO
FURNISH THIS INFORMATION TO
OTHERS.
931 INDUSTRIAL LOOP
DELTA JUNCTION, AK
99737-1229
STOCK SIZE
SCALE
MATERIAL
REVISION
HEAT TREAT
ASSEMBLY NUMBER
J HASZ, PE
PONCELET KINETICS
RHK100
5086 H34
ALUMINUM
1 OF 1
1
0 DEC. +/- .125
1 DEC. +/- .063
2 DEC. +/- .01
3 DEC. +/- .005
DIMENSIONS
IN INCHES
N/A
SHORELINE
DEBRIS DIVERSION CABLE
40:1
CRAFT ISOMETRIC
VIEW
12/13/2011
SEW
SAFETY TETHER
Part 6 Exhibit F - Page 16
The RISEC device can bring hydroelectric power to rural communities
without the need for a dam.
Photo from AK Energy Authority
Renewable
Electricity
Generation
Tapping the Power of Alaska’s Rivers
Delta Junction, Alaska
EERE investment: $142K
Partnering with Alaska’s Whitestone Power, EERE is sup-
porting efforts to develop a practical River In-Stream Energy
Conversion (RISEC)—a device that can produce electricity
from free-owing rivers not suited to conventional hydro-
electric generation, and that can do so in Alaska’s weather
conditions. Rural areas of Alaska frequently experience
high electricity prices due to the high costs of delivering
fuel to those areas. Under those conditions, technologies
like RISEC, when implemented at a commercial scale, may
provide a source of cost-effective electricity. Whitestone’s
project includes site analyses and surveys for RISEC facilities
in Alaska, theoretical modeling of structural RISEC compo-
nents, turbine blade and mounting prototype testing, and
application strategies. The company’s research yielded several
innovations that will drive future device designs, including
developing site-specic engineering solutions for effectively
applying RISEC technology in Alaskan river environments;
integrating stock components that reduce design, construc-
tion, and component replacement costs; and constructing a
modular design and exible control system that have broad
potential applications for meeting the power needs of remote
Alaskan villages. Whitestone and other project participants
contributed $37,000 to this project.
3
Alaska State Summary: EERE Investments in Alaska
Driving Wind Energy Adoption in Rural Alaska
Communities
Anchorage, Alaska
EERE investment: $2.5M
Supported by an EERE investment, the Alaska Energy
Authority (AEA) has commenced a variety of projects designed
to validate wind energy installations in the state’s harsh
climate. Wind energy installations can generate electricity and
reduce the need for fuel deliveries, the costs of which can be
extreme for remote rural communities, many of which are off
the electric grid. Because of Alaska’s weather, Alaska wind
projects require more study for adaptation of equipment and
proper siting than installations in other U.S. locations. AEA
completed an Environmental Assessment for the Toksook Bay,
Chevak, and Sand Point wind sites; AEA also constructed
both a 400-kilowatt wind project in Chevak and a 1-megawatt
wind project in Sand Point. AEA also organized and partici-
pated in outreach and education for wind and combination
wind-diesel systems; completed site-specic, wind-resource
modeling and feasibility studies for rural Alaskan communi-
ties; and constructed a foundation in Toksook Bay that is
designed to handle the adverse soil conditions in the Yukon-
Kuskokwim Delta. Future efforts will include developing
education and outreach capabilities at the University of
Alaska’s Wind-Diesel Applications Center; expanding support
for AEAs Anemometer Loan Program, which provides rural
Alaskan communities the ability to collect and analyze wind
resource data; and conducting a foundation monitoring and
performance study at Toksook Bay. AEA and other project
participants contributed $2.8 million to this project.
Watching Whales: Measuring the Impact of Tidal Power
Installations on Endangered Belugas
Cook Inlet, Alaska
EERE investment: $600K
With EERE support, Ocean Renewable Power Company
(ORPC) is conducting a two-year study on the effects of
tidal turbines on endangered beluga whales in Cook Inlet,
Alaska—home to some of the greatest tidal energy potential
in the United States. To successfully permit and operate the
tidal power project in Cook Inlet, ORPC must conduct a
rigorous biological assessment of the potential and realized
effects that the tidal turbines’ physical presence and sound
footprint could have on the distribution, relative abundance,
and behavior of the whales. Prior to conducting the assess-
ments, ORPC will collect baseline data at the proposed
deployment areas near Fire Island and at the initial pilot
project site near East Foreland. Researchers will compare
measurement technologies and visual observation techniques
and, based on the assessment results, will recommend a best
practice for future data collection. When complete, this study
will help the tidal industry understand the potential impacts
of tidal energy projects on the belugas, which will inform
future siting and operation decisions.
EERE-funded researchers are evaluating the potential impacts of
tidal energy development on endangered beluga whales.
Photo from
iStock/5049794
Energy-Saving
Homes, Buildings,
and Manufacturing
Alaska State Energy Efciency Appliance Rebate Program
Helps Disabled Alaska Residents
Statewide
EERE investment: $686K
Using EERE funding, the State of Alaska implemented
a state rebate program that is targeted especially for the
disabled. This program has helped bring energy-efcient
appliances within the affordability envelope for Alaska many
residents. In total, Alaska issued $643,011 in rebates, ranging
from $300 to $1,000 on ENERGY STAR
®
qualied clothes
washers, dishwashers, refrigerators, and freezers. The state
set higher rebate amounts for Alaskans who live in remote,
rural areas to help offset shipping costs—which could be
hundreds of dollars. Retailers helped advertise the program
and organized bulk sales to reduce shipping costs. Contact
in very remote areas of the state was often limited to group
excursions to stores in hub communities that served these
remote villages in surrounding areas. The rebate program
saved an estimated 400 million British thermal units and $28
million in energy and water cost savings annually.
10
Alaska Gateway School District Adopts Combined
Heat and Power
Tok, Alaska
In Tok, Alaska, the economic impact of high fuel prices
was crippling the community’s economy—especially for the
Alaska Gateway School District, with staff laid off and double
duties assigned to many. To help offset high energy costs,
4
Alaska State Summary: EERE Investments in Alaska
the school district decided to replace its separated diesel heat
and power systems with a biomass combined heat and power
(CHP) system. Northwest Clean Energy Application Center,
an EERE-supported organization, aided this project by
providing technical support to develop a woody biomass CHP
system, which uses a 5.5-million British thermal unit steam
turbine (120-kilowatt capacity) in lieu of diesel heating and
diesel power generation. The system heats the 80,000-square-
foot local school and will soon allow the school to construct
a greenhouse that will grow fresh vegetables for the school
district’s food service program. Tok School spends more than
$300,000 annually on heating fuel and electricity, and the
boiler will save an estimated $125,000 per year on fuel. Once
the CHP systems are fully operational, the rate of biopower
consumption will increase, with an anticipated use of 5–6 tons
of biomass per day; this biopower will displace approximately
65,000 gallons of heating fuel. Because of the biomass CHP
project’s anticipated and realized savings, Tok School has been
able to rehire three staff members for the school—a music
teacher, counselor, and boiler operator. Once more savings are
realized and biomass CHP is expanded into other sites, the
school anticipates further improvements to student services.
11
The Tok School is realizing significant energy savings thanks to
its biomass-fueled combined heat and power system.
Photo from
Tok School
Deploying Clean Energy Solutions
in Alaskan Communities
EERE invests in the deployment of energy efciency and
renewable energy projects in communities across Alaska.
These investments catalyze economic development, create
jobs, generate clean energy, and reduce utility bills. Many
of these investments have been through American Recovery
and Reinvestment Act (ARRA) funds. Of the more than
$73 million in ARRA funds allocated to the State of Alaska
from EERE specically for deployment projects, more than
90% has been spent as of January 2013 through the Energy
Efciency and Conservation Block Grant Program, State
Energy Program, and Weatherization Assistance Program.
Building Clean Energy Infrastructure
With nancial and technical support from EERE, energy
ofcials at the state level and in 138 communities have selected
and overseen the completion of hundreds of projects that are
delivering the benets of clean energy to citizens throughout
Alaska. EERE allocated more than $55 million in ARRA
funds to support activities that
Contributed to increased energy efciency and cost savings
for more than 1,300 buildings (nearly 6 million square feet)
through building retrots
Installed 5 renewable energy systems, including wind,
solar, and geothermal energy systems
Funded approximately 1,000 workshops, teaching more
than 10,000 people to perform energy audits and install
renewable energy systems.
Weatherizing Homes for Lower Income Families
Alaska has spent more than 82% of the more than $18
million in ARRA funds it received to weatherize 2,600 homes,
surpassing its goal. Statewide, this has resulted in annual
energy savings of more than 75 billion British thermal units
and has averted nearly 7,000 metric tons of greenhouse gas
emissions to date—the equivalent of taking more than 1,400
passenger vehicles off the road for a year. These projects have
enabled income-eligible families to save hundreds of dollars
per year on heating and cooling bills by improving their
homes’ energy efciency, as well as the health and safety of
home environments.
12
Deployment Project Examples
Upgraded “AKWarm” and “ARIA” Systems Will Improve
Energy Efciency Efforts in Alaska
Statewide
EERE investment: $1.7M
The State of Alaska used this investment to improve the capa-
bilities and usability of its building energy modeling program,
AKWarm, and its “back-end” building retrot information
database, Alaska Retrot Information System (ARIS).
AKWarm was expanded from a residential-only program to
include commercial buildings. Alaska then conducted invest-
ment-grade energy audits on as many schools and municipal
buildings as possible. The State uploaded data collected from
this effort into ARIS, and now has in-depth knowledge of the
energy performance for many public buildings across Alaska.
Knowledge obtained from the experience of this project will
help improve the design, construction, and operations of
Alaskan public buildings. The energy audits performed through
this project provide information for many municipalities and
school systems to now be able to apply for low interest loans
from the Alaska Energy Efciency Loan Program to install the
efciency measures that the audits recommended.
5
Alaska State Summary: EERE Investments in Alaska
Deploying Energy Efciency Measures in Remote
Alaska Villages
Statewide
EERE investment: $3.7M
The Alaska Energy Authority (AEA) installed energy
efciency measures that are enabling 51 remote villages across
the state to save money both immediately and for years to
come. AEA installed measures that include upgraded lighting
and mechanical systems at selected buildings. For these
upgrades, AEA furnished and installed all necessary wiring,
thermostats, motors, pumps, and electrical control system
modications. AEA also provided weatherization services to
residential homes. AEA completed these improvements in the
face of daunting challenges with regard to climate, access,
logistics, materials, and energy costs. Many villages have a
very limited construction season, as road access is seasonal—
even non-existent at times. Materials must be barged in
from Portland or Seattle, and only when the ice has melted
from Alaska’s rivers and bays, because shipping in materials
by air is prohibitively expensive. Much of the work on this
project was contracted to local residents, who were trained to
operate and maintain the installed systems. These investments
will support local jobs and reduce costs to communities, as
they will not need to hire outside technicians. These energy
efciency measures are expected to save Alaska communities
574 kilowatt hours of electricity and 84,000 gallons of
heating fuel annually; the measures are also expected to pay
for themselves in about 3 years.
Tlingit and Haida Tribes Provide Training and
Technical Assistance
Tlingit and Haida Indian Tribes
EERE investment: $666K
The Tlingit and Haida Indian Tribes of Alaska, serving
southeastern Alaska, was selected to receive funds for its
Weatherization Training Center, as the center has proven to
be a great resource for researching resolutions to marine cold
climate issues. The Tlingit and Haida Indian Tribes are also
working with the University of Alaska Southeast to train
tribal weatherization crews.
Remote Community of Tanana Residents Increasing
Energy Independence
Tanana, Alaska
EERE investment: $1.5M
The City of Tanana—a small community of less than 300 on
the Yukon River in central Alaska—is improving the energy
efciency of public buildings and installing biomass heating
units. Energy efciency is particularly important in Tanana,
as some residents have been forced to leave due to Tanana’s
historically very high energy costs. The city believes that clean
energy, specically energy efciency and harnessing local
biomass sources, is the key to its future. Instead of shipping
in fuel on costly seasonal barges or propeller planes, residents
are now harvesting their own energy sources in the form
of driftwood oating down the Yukon River. Self-reliance
is critical in Tanana’s isolated location, and these activities
allow residents increase their energy independence. Tanana
is also working with other rural communities throughout
Alaska to share best practices and lessons learned.
References
1 
“Sizing the Clean Economy: A National and Regional Green Jobs Assessment.” The Brookings
Institution and Battelle, July 2011. http://www.brookings.edu/research/reports/2011/07/13-clean-
economy; http://www.brookings.edu/~/media/Series/Clean%20Economy/02.PDF.
2 
Alaska: State Profile and Energy Estimates.” U.S. Energy Information Administration, 2012.
http://www.eia.gov/beta/state/?sid=AK#tabs-4.
3 
Alaska: State Profile and Energy Estimates.” U.S. Energy Information Administration, 2012.
http://www.eia.gov/beta/state/analysis.cfm?sid=AK.
4 
“Governor Parnell Signs Energy Policy.” State of Alaska, 2012. http://gov.alaska.gov/parnell/press-
room/full-press-release.html?pr=5424.
5 
“Database of State Incentives for Renewables & Eciency.” EERE, 2012.
http://dsireusa.org/incentives/incentive.cfm?Incentive_Code=AK12F&re=0&ee=0.
6 
“Database of State Incentives for Renewables & Eciency.” EERE, 2012.
http://dsireusa.org/incentives/incentive.cfm?Incentive_Code=AK16F&re=0&ee=0.
7 
“Database of State Incentives for Renewables & Eciency.” EERE, 2012.
http://dsireusa.org/incentives/incentive.cfm?Incentive_Code=AK15F&re=0&ee=0.
8 
“Database of State Incentives for Renewables & Eciency.” EERE, 2012.
http://dsireusa.org/incentives/incentive.cfm?Incentive_Code=AK08F&re=0&ee=0.
9 
“New Investment in Clean Energy Fell 11% in 2012.” Bloomberg New Energy Finance, 2013.
http://about.bnef.com/2013/01/14/new-investment-in-clean-energy-fell-11-in-2012-2/.
10 
“Reducing Energy Costs for Alaskans.” Alaska Housing Finance Corporation, 2013.
www.ahfc.state.ak.us/energy/appliance_rebates.cfm.
11 
“Hazard Fuel Reduction and Bio-Energy Projects Coexist in the Community of Tok.”
Alaska Department of Natural Resources, 2008. http://forestry.alaska.gov/pdfs/
08TokFireMitigationSchoolProject.pdf.
12 
“Residential Energy Consumption Survey.” (2009). U.S. Energy Information Administration.
http://www.eia.gov/consumption/residential/.
13 
“Retrospective Benefit-Cost Evaluation of U.S. DOE Vehicle Combustion Engine R&D Investments:
Impacts of a Cluster of Energy Technologies.” DOE, May 2010. http://www1.eere.energy.gov/analysis/
pdfs/advanced_combustion_report.pdf.
14 
“Retrospective Benefit-Cost Evaluation of DOE Investment in Photovoltaic Energy Systems.” DOE,
August 2010. http://www1.eere.energy.gov/analysis/pdfs/solar_pv.pdf.
15 
“Retrospective Benefit-Cost Evaluation of U.S. DOE Wind Energy R&D Program,” DOE, June 2010.
http://www1.eere.energy.gov/analysis/pdfs/wind_bc_report10-14-10.pdf.
16 
National Research Council. Energy Research at DOE: Was It Worth It? Energy Eciency and Fossil
Energy Research 1978 to 2000. Washington, DC: National Academies Press, 2001.
17 
“DOE Hydrogen and Fuel Cells Program Record #12020,” DOE, September 27, 2012.
http://hydrogen.energy.gov/pdfs/12020_fuel_cell_system_cost_2012.pdf. Based on projections to
high-volume manufacturing.
18 
“Retrospective Benefit –Cost Evaluation of DOE Investment in Photovoltaic Energy Systems.” DOE,
August 2010. http://www1.eere.energy.gov/analysis/pdfs/solar_pv.pdf.
19 
“Retrospective Benefit-Cost Evaluation of U.S. DOE Wind Energy R&D Program,” DOE, June 2010.
http://www1.eere.energy.gov/analysis/pdfs/wind_bc_report10-14-10.pdf.
20 
“Weatherization Assistance Program.” EERE, May 2009. http://www1.eere.energy.gov/wip/pdfs/
wap_factsheet.pdf.
21 
“Building Technologies Program: History and Impacts.” EERE, 2013. http://www1.eere.energy.gov/
buildings/appliance_standards/history_and_impact.html.
22 
“Energy Technology Solutions: Public-Private Partnerships Transforming Industry.” EERE, December
2010. http://www1.eere.energy.gov/manufacturing/pdfs/itp_successes.pdf.
23 
“Facilitating Cost-Eective Federal Energy Management.” EERE, December 2012.
http://www1.eere.energy.gov/femp/pdfs/femp_fs.pdf.
Front page photo from iStock/6855177; page 2: iStock/17393871; Dennis Schroeder,
NREL 19156; page 3: Jim Tetro, U.S. Department of Energy Solar Decathlon
Alaska State Summary: EERE Investments in Alaska
Printed with a renewable-source ink on
paper containing at least 50% wastepaper,
including 10% post consumer waste.
eere.energy.gov | EE.Communications@ee.doe.gov
DOE/GO-102013-3884 • March 2013
A Proven Track Record
Snapshot of National Outcomes from EERE Investments
EERE’s $931 million investment in vehicles combustion engine R&D from 1986 to 2007 achieved a net benefit of $69 billion
(2008 dollars) in fuel savings for users of heavy-duty diesel trucks.
13
EERE’s $3.7 billion investment in solar photovoltaic R&D from 1975 to 2008 resulted in a net economic benefit of $15 billion
(2008 dollars) due to module eciency and reliability improvements.
14
EERE’s $1.7 billion investment in wind energy R&D from 1976 to 2008 resulted in a net economic benefit of $8.7 billion
(2008 dollars) due to wind turbine eciency, energy capture, and reliability improvements.
15
A 2001 National Academy of Sciences analysis found that investments of $1.6 billion in energy eciency R&D in the first two
decades of DOE’s existence from 1978 to 2000 realized a net economic benefit of approximately $30 billion (1999 dollars).
16
EERE research has helped reduce production costs of automotive lithium-ion batteries by more than 50% since 2008 and is on
track to reach its goal of enabling cost-competitive market entry of plug-in hybrid electric vehicles within the next 10 years.
EERE’s activities to achieve cost-competitiveness for biofuels have resulted in the recent achievement of reaching a modeled
cellulosic ethanol production cost of $2.15 per gallon of ethanol (or $3.27 per gallon of gasoline equivalent).
EERE’s eorts have reduced the projected costs of automotive fuel cells (assuming high-volume manufacturing) by more than
35% since 2008 and 80% since 2002—doubling the durability of fuel cells from 950 hours of demonstrated operation in 2006
to more than 2,500 hours of operation on the road.
17
Without EERE involvement, the average solar photovoltaic (PV) module production cost per watt would have been $5.27 in
2008, rather than $1.92. EERE has accelerated solar industry progress by an estimated 12 years.
18
Without EERE involvement, cumulative wind power deployment through 2008 would have been less than a third of actual
2008 levels. EERE has accelerated the overall progress of the wind industry by an estimated 6 years.
19
More than 6,200,000 homes have been weatherized with EERE funding provided to states or leveraged from other sources with
EERE support since 1976—creating an average energy savings of $350 or more per year and avoiding $1.6 billion in energy costs
during winter 2005 alone for all households weatherized.
20
Due to EERE appliance standards implemented through 2012, a typical household today already saves about $180 per year o its utility
bills. Households can expect to save more than $300 per year by 2030, as they replace their existing appliances with newer models that
use less energy—a cumulative savings to consumers of more than $900 billion by 2020, and more than $1.6 trillion through 2030. The
cumulative energy savings of these standards phased in through 2012 will be about 70 quadrillion British thermal units (quads) of energy
through 2020, and will amount to 120 quads through 2030. (The United States consumes a total of about 100 quads of energy per year.)
21
EERE and its partners in the manufacturing sector have successfully launched 220 new, energy-ecient technologies, received 78
R&D 100 Awards, and delivered technical assistance to more than 33,000 industrial plants.
22
Since 2005, EERE has facilitated $3.1 billion of eciency investments in federal government facilities from performance-based
contracts, which will result in energy cost savings of approximately $8.5 billion over the life of the energy-saving measures. The
savings on utility bills and operation and maintenance created through the facility upgrades will be used to pay for the project over
the term of the contract, and the agencies will continue to save money and energy after the contract term has ended.
23
The Oce of Energy Eciency and Renewable Energy is at the center of creating the clean energy economy today. We lead U.S. Department of Energy
eorts to develop and deliver market-driven solutions for renewable electricity generation; sustainable transportation; and energy-saving homes, buildings,
and manufacturing. To learn more about the activities of the Oce of Energy Eciency and Renewable Energy, visit eere.energy.gov. If you have questions
or comments about the information in this document, please contact us at EE.[email protected].gov.
EERE’s Return on Investment
for Clean Energy Technologies
Sustainable Transportation
Renewable Electricity Generation
Energy-Saving Homes,
Buildings, and Manufacturing