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Renewable energy in the United States

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Map of major renewable energy resources in the contiguous United States.
A map of major renewable energy resources in the contiguous United States.
Renewable energy sources in 2022. Renewables were 8.4% of total energy, or 8.3quads.[1]
  1. Biomass (61.1%)
  2. Wind (17.8%)
  3. Hydro (10.5%)
  4. Solar (9.20%)
  5. Geothermal (1.40%)
Renewable electricity sources in 2022. Renewables were 21% of total electricity, or 907 TWh.[2]
  1. Wind (45.1%)
  2. Hydro (26.5%)
  3. Solar (21.3%)
  4. Biomass (5.40%)
  5. Geothermal (1.70%)
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Renewable energy

According to data from theUS Energy Information Administration,renewable energy accounted for 8.4% of total primary energy production[1] and 21% of total utility-scale electricity generation in the United States in 2022.[3]

Since 2019,wind power has been the largest producer of renewable electricity in the country. Wind power generated 434terawatt-hours of electricity in 2022, which accounted for 10% of the nation's electricity and 48% of renewable generation.[2] By January 2023, the United Statesnameplate generating capacity forwind power was 141.3 gigawatts (GW).[4]Texas remained firmly established as the leader in wind power deployment, followed by Iowa and Oklahoma as of the first quarter of 2023.[5]

Hydroelectric power is the second-largest producer of renewable electricity in the country, generating around 6.2% of the nation's electricity in 2022 as well as 29% of renewable generation.[2]The United States is thefourth largest producer of hydroelectricity in the world after China, Canada and Brazil.

Solar power provides a growing share of electricity in the country, with over 111.6 GW of installed capacity generating about 3.4% of the country's total electricity supply in 2022, up from 2.8% the previous year. As of 2020, more than 260,000 people worked in the solar industry and43 states deployed net metering, where energy utilities bought back excess power generated bysolar arrays.[6][7] Largephotovoltaic power plants in the United States includeMount Signal Solar (600 MW) andSolar Star (579 MW). Since the United States pioneeredsolar thermal power technology in the 1980s withSolar One, several more such power stations have been built. The largest of these solar thermal power stations are theIvanpah Solar Power Facility (392 MW), southwest of Las Vegas, and theSEGS group of plants in the Mojave Desert, with a total generating capacity of 354 MW.[8]

Other renewable energy sources includegeothermal, withThe Geysers inNorthern California the largest geothermal complex in the world.

The development of renewable energy and energy efficiency marked "a new era of energy exploration" in the United States, according to PresidentBarack Obama in 2009.[9] In ajoint address to the Congress on February 24, 2009, President Obama called for doubling renewable energy within the following three years. Renewable energy reached a major milestone in the first quarter of 2011, when it contributed 11.7% of total national energy production (660 TWh), surpassing energy production from nuclear power (620 TWh)[10] for the first time since 1997.[11]In his 2012State of the Union address, President Barack Obama restated his commitment to renewable energy and mentioned the long-standing Interior Department commitment to permit 10 GW of renewable energy projects on public land in 2012.[12] Under PresidentJoe Biden, Congress increased that goal to 25 GW by 2025.[13] As of May 2023, the Bureau of Land Management has approved projects meeting approximately 37% of that goal.[14]

Rationale for renewables

[edit]

Renewable energy technologies encompass a broad, diverse array of technologies, includingsolar photovoltaics,solar thermal power plants and heating/cooling systems,wind farms,hydroelectricity,geothermal power plants, andocean power systems and the use ofbiomass.

The reportOutlook On Renewable Energy In America explains that America needs renewable energy, for many reasons:

America needs energy that is secure, reliable, improves public health, protects the environment, addresses climate change, creates jobs, and provides technological leadership. America needs renewable energy. If renewable energy is to be developed to its full potential, America will need coordinated, sustained federal and state policies that expand renewable energy markets; promote and deploy new technology; and provide appropriate opportunities to encourage renewable energy use in all critical energy market sectors: wholesale and distributedelectricity generation, thermal energy applications, and transportation.[15]

Another benefit of some renewable energy technologies, like wind and solar photovoltaics (PV) is that they require little or no water to generate electricity whereas thermoelectric (fossil fuel–based) power plants require vast amounts of water for operation.

In 2009, PresidentBarack Obama in theinaugural address called for the expanded use of renewable energy to meet the twin challenges ofenergy security andclimate change. Those were the first references ever to the nation's energy use, to renewable resources, and to climate change in an inauguration speech of a United States president. President Obama looked to the near future, saying that as a nation, the United States will "harness the sun and the winds and the soil to fuel our cars and run our factories."[16]

The president'sNew Energy For America plan calls for a federal investment of $150 billion over the next decade to catalyze private efforts to build a clean energy future. Specifically, the plan calls for renewable energy to supply 10% of the nation's electricity by 2012, rising to 25% by 2025.[16]

In hisjoint address to Congress in 2009, Obama stated that: "We know the country that harnesses the power of clean, renewable energy will lead the 21st century.... Thanks to ourrecovery plan, we will double this nation's supply of renewable energy in the next three years... It is time for America to lead again".[17]

As of 2011, new evidence has emerged that there are considerable risks associated with traditional energy sources, and that major changes to the mix of energy technologies is needed:

Several mining tragedies globally have underscored the human toll of the coal supply chain. New EPA initiatives targeting air toxins, coal ash, and effluent releases highlight the environmental impacts of coal and the cost of addressing them with control technologies. The use of fracking in natural gas exploration is coming under scrutiny, with evidence of groundwater contamination and greenhouse gas emissions. Concerns are increasing about the vast amounts of water used at coal-fired and nuclear power plants, particularly in regions of the country facing water shortages. Events at theFukushima nuclear plant have renewed doubts about the ability to operate large numbers of nuclear plants safely over the long term. Further, cost estimates for "next generation" nuclear units continue to climb, and lenders are unwilling to finance these plants without taxpayer guarantees.[18]

A 2024 study quantifies the environmental and health gains from increased wind and solar energy use in the U.S. between 2019 and 2022, reporting a reduction of 900 million metric tons of CO2 and an estimated $249 billion in climate and health benefits.[19]

Renewable energy and carbon dioxide emissions

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Between 2010 and 2020, the cost of wind, solar, and natural gas dropped dramatically.[20] In 2018, EIA expected that, after rising by 2.7% in 2018, U.S. energy-related carbon dioxide (CO2) emissions would decrease by 2.5% in 2019 and by 1.0% in 2020[21] due to a shift away from coal and toward renewables and natural gas.

Renewable energy has the potential to reduce CO2 emissions in three key energy use sectors: transport, heating and cooling (including building heating and air conditioning, industrial heat usage, etc.), and electricity. The year 2018 had been a peak year for the use of air conditioning, which was expected to decline.[21]

Current trends

[edit]

Renewable energy in the electricity sector

[edit]
Growth in renewable-source electricity generation has been led by wind and solar.[22]
New installation of wind and solar capacity surged in 2020, but was then affected by sourcing problems for solar panels, supply chain constraints, interconnection issues, and policy uncertainty.[23][24]
Total wind+solar electricity generation now exceeds coal-based energy in the U.S.[25]
Though Texas and California generate the most wind + solar power of all states, various other states generate more wind + solar powerper capita.[26]
Over centuries, energy consumption has evolved from burning wood to fossil fuels (coal, oil, natural gas), and in recent decades to using nuclear, hydroelectric and other renewable energy sources.[27]
Timeline of electricity from renewable sources in the United States
State Renewables % by Fuel Type
Fuel Source % for Electric Generation 2013-2022

Renewable energy accounted for 14.94% of the domestically produced electricity in 2016 in the United States.[28] This proportion has grown from just 7.7% in 2001, although the trend is sometimes obscured by large yearly variations in hydroelectric power generation. Most of the growth since 2001 can be seen in the expansion of wind generated power, and more recently, in the growth in solar generated power.Renewable energy in California is prominent, with around 29% of electricity coming fromRPS-eligible renewable sources (including hydropower).[29]

The United States has some of the best renewable energy resources in the world, with the potential to meet a rising and significant share of the nation's energy demand. A quarter of the country's land area has winds strong enough to generate electricity at the same price as natural gas and coal.[30] Less than 5% of the federal land that is suitable for renewable energy development is needed to achieve carbon-free electricity by 2035.[31]

Many of the new technologies that harness renewables—including wind, solar, geothermal, and biofuels—are, or soon will be, economically competitive with the fossil fuels that meet 85% of United States energy needs. Dynamic growth rates are driving down costs and spurring rapid advances in technologies.[30] Wind power and solar power are becoming increasingly important relative to the older and more established hydroelectric power source. By 2016 wind power covered 37.23% of total renewable electricity production against 43.62% for hydroelectric power. The remaining share of power was generated by biomass at 10.27%, solar power at 6.03% and geothermal with 2.86% of total renewable generation.

In 2015,Georgetown, Texas became one of the first American cities to be powered entirely by renewable energy, choosing to do so for financial stability reasons.[32]

The United States consumed about 4,000 TWh of electricity in 2012, and about 30,000 TWh (98 quadrillion BTU) of primary energy. Efficiency improvements are expected to reduce usage to 15,000 TWh by 2050.

Renewables Electric Energy Generation Profile
Composition of renewable electricity production (2022)[2]
SourceCapacity
(GW)
Capacity
factor
Generation
(TWh)
Share of
renew.total
Wind136.70.36434.345.1%10.1%
Hydro80.10.36254.826.5%5.9%
Solar111.20.24205.121.3%4.8%
Biomass12.20.5951.85.4%1.2%
Geothermal2.60.5916.11.7%0.4%
Total342.80.31962.1100%22.4%
Note: Solar includes estimated small scale. Biomass includes wood and wood-derived fuel,
landfill gas, biogenic municipal solid waste and other waste biomass.

Future projections

[edit]

Using data from Electric Power Annual 2018[33] capacity projections, the expected changes in generating capabilities for renewable fuel sources would result in an increase of 55.873 GW of capacity coming on-line by the beginning of 2024. This would make a total of 277.77 gigawatts of renewable available by 2024 up 23.1% from 2018. Using this generating capability and the capacity factors from 2018 data will result in a total of 798.19terawatt-hours (TWh) of renewable electric energy in 2023. This would be up 61.84 TWh (+8.3%) from 2018.

Renewable electricity sources

[edit]

Hydroelectricity

[edit]
TheHoover Dam when completed in 1936 was both the world's largest electric-power generating station and the world's largestconcrete structure.
Main article:Hydroelectric power in the United States

Hydroelectric power was the largest producer of renewable power in the United States until 2019 when it was overtaken by wind power.[34] It produced 254.79 TWh which was 5.94 % of the nation's total electricity in 2022 and provided 26.48% of the total renewable power in the country.[2] The United States is thethird largest producer of hydroelectricity in the world after China and Brazil.

TheGrand Coulee Dam is the 9thlargest hydroelectric power station in the world. Another six U.S. hydroelectric plants are among the 50 largest in the world. The amount of hydroelectric power generated is strongly affected by changes in precipitation andsurface runoff. Hydroelectricity projects such asHoover Dam, Grand Coulee Dam, and theTennessee Valley Authority have become iconic large construction projects.

Largest hydroelectric power stations
NameYear of completionTotal capacity (MW)
Grand Coulee1942/1980[35] 6,809
Bath County PSP19853,003
Robert Moses Niagara Power Plant19612,675
Chief Joseph Dam1958/73/792,620
John Day Dam19492,160
The Dalles Dam19812,160
Hoover Dam1936/19612,080
  • HYDRO Generated Electric Energy Profile 2022-2021
    HYDRO Generated Electric Energy Profile 2022-2021
  • 10 Yr Hydro Generated Electric Energy Profile 2022-2012
    10 Yr Hydro Generated Electric Energy Profile 2022-2012
  • 10 Year Hydro Generation for the Top Ten Hydro States
    10 Year Hydro Generation for the Top Ten Hydro States
  • 10 Years of Hydro Generation by States outside the Top Ten
    10 Years of Hydro Generation by States outside the Top Ten

Wind power

[edit]
Main article:Wind power in the United States
TheShepherds Flat Wind Farm is an 845megawatt (MW)wind farm in the state ofOregon.
In 2008, landowners typically received $3,000 to $5,000 per year in rental income from each wind turbine. Farmers continue to grow crops or graze cattle up to the foot of the turbines.[36]

Wind power capacity in the United States tripled from 2008 to 2016, at which time it supplied over 5% of the country's total electricity generation. Wind power overtook hydroelectric as the largest source of renewable electricity generation in 2019, and accounted for 10.25% of the country's total electricity generation by in 2022.[37]Wind and solar accounted for two-thirds of new energy installations in the United States in 2015.[38]United States wind power installed capacity exceeds 141 GW as of 2023.[2] This capacity is exceeded only byChina.

The 1550MWAlta Wind Energy Center is the largest wind farm in the United States and the second largest in the world behind theGansu Wind Farm.[39]

There were 90,000 wind operations jobs in the United States in 2015. The wind industry in the United States generates tens of thousands of jobs and billions of dollars of economic activity.[40] Wind projects boost local tax bases, and revitalize the economy of rural communities by providing a steady income stream to farmers with wind turbines on their land.[36]GE Energy is the largest domesticwind turbine manufacturer.[36]

In 2013, wind power received $5.936 billion in federal funding, which is 37% of all federal funding for electricity generation.[41]

The United States has the potential of installing 10terawatt (TW) of onshore wind power and 4 TW of offshore wind.[42] The U.S. Department of Energy's report20% Wind Energy by 2030 envisioned that wind power could supply 20% of all the country's electricity, which included a contribution of 4% fromoffshore wind power.[40] Additional transmission lines will need to be added, to bring power from windy states to the rest of the country.[43] In August 2011, a coalition of 24 governors asked the Obama administration to provide a more favorable business climate for the development of wind power.[44]

Wind power has particularly surged, with Colorado producing 16,000 GWh in 2023, a testament to the state's investment in this clean energy source.[45]

  • Wind Generated Electric Energy Profile 2022-2021
    Wind Generated Electric Energy Profile 2022-2021
  • Top Six Wind States
    Top Six Wind States
  • Top Ten Wind State 2022
    Top Ten Wind State 2022
  • 10 Years of Wind Generation by State
    10 Years of Wind Generation by State
  • 10 Years of Wind Generation 2022
    10 Years of Wind Generation 2022
  • Wind Farm Generation 2022
    Wind Farm Generation 2022
  • Wind Farm Capacity Factor 2022
    Wind Farm Capacity Factor 2022
Largest wind farms in the United States
Wind farmStateCurrent capacity
(MW)
Notes
Alta (Oak Creek-Mojave)California1,320[46]
Buffalo Gap Wind FarmTexas523[47][48]
Capricorn Ridge Wind FarmTexas663[47][48]
Cedar Creek Wind FarmColorado551
Fowler Ridge Wind FarmIndiana600[49]
Horse Hollow Wind Energy CenterTexas736[47][48]
Meadow Lake Wind FarmIndiana500[49]
Roscoe Wind FarmTexas782[50]
Shepherds Flat Wind FarmOregon845
Sweetwater Wind FarmTexas585[47]

Solar power

[edit]
Solar arrays at the 550 MWDesert Sunlight Solar Farm
Main article:Solar power in the United States
5,000
10,000
15,000
20,000
25,000
30,000
J
F
M
A
M
J
J
A
S
O
N
D
  •   Solar PV utility-scale
  •   Solar thermal utility-scale
  •   Estimated distributed solar PV
Monthly solar power generation in 2022 (GWh)[2]

The United States is one of the world's largest producers of solar power.The country pioneered solar farms and many key developments in concentrated solar and photovoltaics came out of national research.

In 2022, utility scale solar contributed 145.6 TWh to the grid, with 142.6 TWh from photovoltaics and 3.0 TWh from thermal systems.[2] In 2020, 2021, and 2022, EIA estimated that distributed solar generated 41.522 TWh, 49.164 TWh and 58.512 TWh respectively.[2] While utility-grade systems have well documented generation, distributed systems contributions to user electric power needs are not measured or controlled. Therefore, quantitative evaluation of distributed solar to the country's electric power sector has been lacking. Recently, the Energy Information Administration has begun estimating that contribution.[51][2] Before 2008, most solar-generated electric energy was from thermal systems, however by 2011 photovoltaics had overtaken thermal.

  • Top Six Solar States
    Top Six Solar States
  • 10 Years of Solar Generation including Small Scale
    10 Years of Solar Generation including Small Scale
  • Top Ten States for Utility Solar 2022
    Top Ten States for Utility Solar 2022
  • Top Ten States for Small Scale Solar
    Top Ten States for Small Scale Solar
  • Major Solar Farms Generation 2022
    Major Solar Farms Generation 2022

Photovoltaics

[edit]
Photovoltaic solar panels on a house roof

At the end of 2022, the United States had 70.6gigawatts (GW) of installed utility-scale photovoltaic capacity.[2] The United States has some of thelargest solar farms in the world.Mount Signal Solar had installed over 600 MW by 2018 and will have 800 MW of capacity upon completion.Solar Star is a 579megawatt (MWAC) farm nearRosamond, California. Completed in June 2015, it uses 1.7 million solar panels, spread over 13 square kilometres (5.0 sq mi).[52][53][54] TheDesert Sunlight Solar Farm is a 550 MWsolar power plant inRiverside County, California, that uses thin-film solarphotovoltaic modules made byFirst Solar.[55] TheTopaz Solar Farm is a 550 MW photovoltaic power plant, inSan Luis Obispo County, California.[56] TheBlythe Solar Power Project is a 485 MW photovoltaic station planned forRiverside County, California.

Many schools and businesses havebuilding-integrated photovoltaic solar panels on their roof. Most of these are grid connected and usenet metering laws to allow use of electricity in the evening that was generated during the daytime. New Jersey leads the nation with the least restrictive net metering law, while California leads in total number of homes which have solar panels installed. Many were installed because of the million solar roof initiative.[57]

California decided that it is not moving forward fast enough on photovoltaic generation and in 2008 enacted afeed-in tariff. Washington state has a feed-in tariff of 15 ¢/kWh which increases to 54 ¢/kWh if components are manufactured in the state.[58] By 2015, California, Hawaii, Arizona and some other states were lowering payments todistributed solar owners and instituting new fees for grid usage. Tesla and a handful of other companies were promoting household grid-tied batteries while some electric companies were investing in utility-scalegrid energy storage including very large batteries.

Beginning with the 2014 data year, Energy Information Administration has estimated distributed solar photovoltaic generation and distributed solar photovoltaic capacity.[51] These non-utility scale estimates that the United States, generated the following additional electric energy from such distributed solar PV systems.[2]

Concentrated solar power

[edit]
The 392 MWIvanpah Solar Power Facility in California: The facility's three towers.

At the end of 2016 there were 1.76 GW total installed capacity of solar thermal power across the United States.[2]Solar thermal power is generally utility-scale.Prior to 2012, in six southwestern states, Arizona, California, Colorado, Nevada, New Mexico, and Utah, the US Bureau of Land Management owned nearly 98 million acres (400,000 km2), an area larger than the state of Montana, that was open to proposals for solar power installations. To streamline consideration of applications, the BLM produced a Programmatic Environmental Impact Statement (PEIS). In October 2012, the BLM withdrew 78% of its land from possible solar development, leaving 19 million acres (77,000 km2) still open to applications for solar installations, an area nearly as large as South Carolina. Of the area left open to solar proposals, the BLM has identified 285 thousand acres in 17 highly favorable areas it calls Solar Energy Zones.[59][60][61]

Solar thermal power plants designed for solar-only generation are well matched to summer noon peak loads in prosperous areas with significant cooling demands, such as the south-western United States. Using thermal energy storage systems, solar thermal operating periods can even be extended to meet base-load needs.[62]

A 2013 study by the US National Renewable Energy Laboratory concluded that utility-scale solar power plants directly disturb an average of 2.7 to 2.9 acres per gigawatt-hour/year, and use from 3.5 to 3.8 acres per gW-hr/year for the entire sites. According to a 2009 study, this intensity of land use is less than that of the country's average power plant using surface-mined coal.[63] Some of the land in the eastern portion of the Mojave Desert is to be preserved, but the solar industry is more interested in areas of the western desert, "where the sun burns hotter and there is easier access to transmission lines".[64]

Some of the largest solar thermal power plants in the United States are in the south-west of the country, especially in theMojave Desert.Solar Energy Generating Systems (SEGS) is the name given to ninesolar power plants in theMojave Desert commissioned between 1984 and 1991.[8]The installation usesparabolic troughsolar thermal technology along withnatural gas to generate electricity. The facility has a total of 400,000 mirrors and covers 1,000 acres (4 km2).The plants have a total generating capacity of 354 MW.[8]

Nevada Solar One generates 64MW of power and inBoulder City,Nevada, and was built by theU.S. Department of Energy (DOE),National Renewable Energy Laboratory (NREL), and Solargenix Energy. Nevada Solar One started producing electricity in June 2007.Nevada Solar One usesparabolic troughs asthermal solar concentrators, heating tubes of liquid which act as solar receivers. These solar receivers are specially coated tubes made of glass and steel. About 19,300 of these 4 metre long tubes are used in the newly built power plant. Nevada Solar One also uses a technology that collects extra heat by putting it into phase-changing molten salts. This energy can then be drawn on at night.[65]

TheIvanpah Solar Power Facility is a 392megawatt (MW) solar power facility which is located in south-eastern California.[66] The facility formally opened on February 13, 2014.[67]TheSolana Generating Station is a 280 MWsolar power plant which is nearGila Bend,Arizona, about 70 miles (110 km) southwest ofPhoenix. The 250MWMojave Solar Project is located nearBarstow, California. TheCrescent Dunes Solar Energy Project is a 110 megawatt (MW)solar thermal power project nearTonopah, about 190 miles (310 km) northwest ofLas Vegas.[68]

Geothermal power

[edit]
Main article:Geothermal energy in the United States

The United States is the world leader in online capacity and the generation of electricity from geothermal energy.[69] According to 2022 state energy data, geothermal energy provided approximately 16terawatt-hours (TWh) of electricity, or 0.37% of the total electricity consumed in the country. As of May 2007, geothermal electric power was generated in five states: Alaska, California, Hawaii, Nevada, and Utah.According to theGeothermal Energy Association's recent report, there were 75 new geothermal power projects underway in 12 states as of May 2007.This is an increase of 14 projects in an additional three states compared to a survey completed in November 2006.[69]

The most significant catalyst behind new industry activity is theEnergy Policy Act of 2005. This Act made new geothermal plants eligible for the full federal production tax credit, previously available only to wind power projects. It also authorized and directed increased funding for research by theDepartment of Energy, and gave the Bureau of Land Management new legal guidance and secure funding to address its backlog of geothermal leases and permits.[69]

Geothermal Generated Electric Energy Profile 2022-2021
10 Years of Geothermal Generation, 2013-2022
Geothermal capacity and generation by state as of December 2017[70]
StateCapacity
(MW)
% of
Capacity
Electric
generation (MWh)
Capacity
factor
California183874%11,559,5910.718
Nevada498.220%3,291,8740.754
Utah733%480,9280.752
Hawaii431.7%322,5920.856
Oregon19.50.8%174,3811.0
Idaho100.4%84,4360.964
New Mexico1.60.06%12,9630.925
Total2483.3100%15,926,7650.732

Biomass

[edit]

In 2022,biomass generated 51.847terawatt-hours (TWh) of electricity, or 1.21% of the country's total electricity production. Biomass was the largest source of renewable primary energy in the US, and the fourth-largest renewable source of electrical power in the US, after wind, hydropower, and solar.[2]

BioMass Electric Energy Generation 2022-2021
10 Years of Biomass Electric Energy Generation 2022-2013
10 Years of Biomass Electric Energy Generation

Biomass electric generation data combines two basic categories:

  1. Wood and wood-derived fuels including wood/wood waste solids (including paper pellets, railroad ties, utility poles, wood chips, bark and wood waste solids), wood waste liquids (red liquor, sludge wood, spent sulfite liquor, and other wood-based liquids), and black liquor;
  2. Other biomass fuels include municipal solid waste,landfill gas, sludge waste agricultural byproducts, other biomass solids, other biomass liquids, and other biomass gases (including digester gases, methane, and other biomass gases)

Wave power

[edit]
Main article:Wave Power in the United States

Wave power in the United States is under development in several locations off the east and west coasts as well as Hawaii. It has moved beyond the research phase and is producing reliable energy. Its use to-date has been for situations where other forms of energy production are not economically viable and as such, the power output is currently modest. But major installations are planned to come on-line within the next few years.[71]

Solar water heating

[edit]

In 2006, the U.S. Department of Energy stated that more than 1.5 million homes and businesses were usingsolar water heating in the United States, representing a capacity of over 1,000 megawatts (MW) of thermal energy generation. It predicted that another 400 MW was likely to be installed over the next 3–5 years.

Assuming that 40 percent of existing homes in the United States have adequate access to sunlight, 29 million solar water heaters could be installed.[72]

Solar water heaters can operate in any climate. Performance varies depending on how much solar energy is available at the site, as well as how cold the water coming into the system is. The colder the water, the more efficiently the system operates.[72]

Solar water heaters reduce the need for conventional water heating by about two-thirds and pay for their installation within 4 to 8 years with electricity or natural gas savings. Compared to those with electric water heaters, Florida homeowners with solar water heaters save 50 to 85 percent on their water heating bills, according to the Florida Solar Energy Center.[72]

Biofuels

[edit]
Information on pump, California
Main article:Biofuel in the United States

Many cars sold in the U.S. since 2001 are able to run on blends of up to 15%ethanol.[73]Older cars in the United States can run on blends of up to 10%ethanol. Motor vehicle manufacturers already produce vehicles designed to run on much higher ethanol blends.Ford,DaimlerChrysler, andGM are among the automobile companies that sell "flexible-fuel" cars, trucks, and minivans that can use gasoline and ethanol blends ranging from pure gasoline up to 85% ethanol (E85). By mid-2006, there were approximately 6 million E85-compatible vehicles on the road.[74]

Ninety-five percent of gasoline sold in the U.S.(2016) is blended with 10% ethanol.[75] There are challenges in moving to higher blends, however. Flex-fuel vehicles are assisting in this transition because they allow drivers to choose different fuels based on price and availability. TheEnergy Independence and Security Act of 2007, which calls for 15.2 billion US gallons (58,000,000 m3) of biofuels to be used annually by 2012, will also help to expand the market.[74] The USDA in 2015 began offering grants to help gasoline retailers install blender pumps for dispensing mid-level ethanol blends.[76]

The expanding ethanol andbiodiesel industries are providing jobs in plant construction, operations, and maintenance, mostly in rural communities. According to the Renewable Fuels Association, the ethanol industry created almost 154,000 jobs in 2005 alone, boosting household income by $5.7 billion. It also contributed about $3.5 billion in tax revenues at the local, state, and federal levels.[74] On the other hand, in 2010, the biofuel industry received $6.64 billion in federal government support.[77]

Renewable energy research

[edit]

There are numerous organizations within the academic, federal, and commercial sectors conducting large-scale advanced research in the field of renewable energy. This research spans several areas of focus across the renewable energy spectrum. Most of the research is targeted at improving efficiency and increasing overall energy yields.[78] Multiple federally supported research organizations have focused on renewable energy in recent years. Two of the most prominent of these labs areSandia National Laboratories (SNL) and theNational Renewable Energy Laboratory (NREL), both of which are funded by theUnited States Department of Energy and supported by various corporate partners.[79] As of 2009, Sandia had a total budget of $2.4 billion[80] while NREL had a budget of $375 million.[81]

Both the SNL and the NREL have heavily funded solar research programs.BP was also heavily invested in solar research programs until 2008 when the company began scaling back its solar operations.[82] The company finally shut down its forty-year-old solar business after executives decided solar power production is not economically competitive.[82] The NREL solar program had a budget of around $75 million as of 2009[83] and develops research projects in the areas ofphotovoltaic (PV) technology, solar thermal energy, and solar radiation.[84] The budget for Sandia's solar division is unknown, however it accounts for a significant percentage of the laboratory's $2.4 billion budget.[85]

Several academic programs have focused on solar research in recent years. The Solar Energy Research Center (SERC) atUniversity of North Carolina (UNC) has the sole purpose of developing cost effective solar technology. In 2008, researchers atMassachusetts Institute of Technology (MIT) developed a method to store solar energy by using it to produce hydrogen fuel from water.[86] Such research is targeted at addressing the obstacle that solar development faces of storing energy for use during nighttime hours when the sun is not shining. In February 2012, North Carolina–based Semprius Inc., a solar development company backed by German corporationSiemens, announced that they had developed the world's most efficient solar panel. The company claims that the prototype converts 33.9% of the sunlight that hits it to electricity, more than double the previous high-end conversion rate.[87]

Wind energy research dates back several decades to the 1970s whenNASA developed an analytical model to predict wind turbine power generation during high winds.[88] Today, both the SNL and NREL have programs dedicated to wind research. Sandia's laboratory focuses on the advancement of materials, aerodynamics, and sensors.[89] The NREL wind projects are centered on improving wind plant power production, reducing their capital costs, and making wind energy more cost effective overall.[90]The Field Laboratory for Optimized Wind Energy (FLOWE) atCaltech was established to research renewable approaches to wind energy farming technology practices that have the potential to reduce the cost, size, and environmental impact of wind energy production.[91]

As the primary source of biofuels in North America, many organizations are conducting research in the area ofethanol production. On the Federal level, theUSDA conducts a large amount of research regarding ethanol production in the United States. Much of this research is targeted toward the effect of ethanol production on domestic food markets.[92]TheNational Renewable Energy Laboratory has conducted various ethanol research projects, mainly in the area ofcellulosic ethanol.[93]Cellulosic ethanol has many benefits over traditional corn-based ethanol. It does not take away or directly conflict with the food supply because it is produced from wood, grasses, or non-edible parts of plants.[94] Some studies have shown cellulosic ethanol to be more cost effective and economically sustainable than corn-based ethanol.[95]Sandia National Laboratories conducts in-house cellulosic ethanol research[96] and is also a member of theJoint BioEnergy Institute (JBEI), a research institute founded by theUnited States Department of Energy with the goal of developing cellulosic biofuels.[97]

Over $1 billion of federal money has been spent on the research and development of hydrogen fuel in the United States.[98] Both the NREL[99] and SNL[100] have departments dedicated to hydrogen research.

White hydrogen

[edit]
See also:High-temperature electrolysis andHigh-pressure electrolysis
TheMid-continental Rift System

White hydrogen could be found or produced in theMid-continental Rift System at scale for a renewablehydrogen economy. Water could be pumped down to hot iron-rich rock to produce hydrogen and the hydrogen could be extracted.[101][102]

Employment

[edit]

Accurate estimates regarding job creation as a result of an increasing reliance on renewable energy in the United States are challenging to predict due to unforeseen technological developments, uncertainty surrounding the United States' future import/export levels of renewable energy technology, and ambiguity regardingindirect and induced employment effects. That being said, it is very likely that the United States would see a net increase in employment in the energy sector as a result of arenewable energy transition.[103][104][105]

A study performed by Wei, Patadia, and Kammen about renewable energy efficiency in the United States found that the renewable energy sector generates significantly more jobs than the fossil fuel sector based on the per energy unit delivered.[105][106][107] The renewable energies found to have the highest employment per energy unit generated ratios are solar and wind; this is likely due to their installation components.[105] Although net employment would vary per location within the U.S., for example, West Virginia's net employment would be more adversely impacted than California's due to West Virginia's coal mining industry, in total, net employment in the energy sector within the U.S. is projected to considerably increase.[105] The increase in direct employment as well as increased renewable energy infrastructure would naturally lead to additional indirect and induced jobs as well.

Research done on countries in the European Union has affirmed this positive net employment notion.Towards a green energy economy? Tracking the employment effects of low-carbon technologies in the European Union, a study done by Markandya et al. used a multi-regional input-output model in conjunction with the World Input-Output Database to analyze data from 1995 - 2009 in search of net employment impacts.[104] These years were specifically considered as the European Union's energy structure was shifting significantly towards gas and other renewable forms of energy during this time. Although the country specific affects varied, it was found that 530,000 jobs overall were netted from the transition during this timeframe.[104]

Another study done on Germany by Lehr, Lutz, and Edler used the PANTA RHEI model to evaluate the German energy situation by taking positive and negative renewable energy impacts into account.[105] The model considered different assumptions for fossil fuel prices, domestic installations, international trade, and German exports to developing renewable energy world markets. Under almost all of the scenarios, positive net employment effects were exhibited.[105]

Public opinion

[edit]
Acceptance of wind and solar facilities in one's community is stronger among Democrats (blue), while acceptance of nuclear power plants is stronger among Republicans (red).[108]

According to a 2019 CBS News poll on 2,143 U.S. residents, 42% of American adults under 45 years old thought that the U.S. could realistically transition to100% renewable energy by 2050 while 29% deemed it unrealistic and 29% were unsure. Those numbers for older Americans are 34%, 40%, and 25%, respectively. Differences in opinion might be due to education as younger Americans are more likely to have beentaught about climate change in schools than their elders.[109]

Policy

[edit]

TheEnergy Policy Act of 2005 requires all public electric utilities to facilitatenet metering.[110] This allows homes and businesses performingdistributed generation to pay only the net cost of electricity from the grid: electricity used minus electricity produced locally and sent back into the grid. Forintermittent renewable energy sources this effectively uses the grid as abattery to smooth over lulls and fill in production gaps.

Some jurisdictions go one step further and have institutedfeed-in tariff, which allows any power customer to actually make money by producing more renewable energy than is consumed locally.

From 2006 to 2014, US households received more than $18 billion in federal incometax credits forweatherizing their homes, installing solar panels, buying hybrid and electric vehicles, and other "clean energy" investments. These tax expenditures went predominantly to higher-income Americans. The bottom three income quintiles received about 10% of all credits, while the top quintile received about 60%. The most extreme is the program aimed at electric vehicles, where the top income quintile received about 90% of all credits. Market mechanisms have less skewed distributional effects.[111]

TheAmerican Recovery and Reinvestment Act of 2009 included more than $70 billion in direct spending and tax credits forclean energy and associated transportation programs. This policy-stimulus combination represents the largest federal commitment in United States history forrenewable energy, advanced transportation, andenergy conservation initiatives. These new initiatives were expected to encourage many more utilities to strengthen their clean energy programs.[112] While the Department of Energy has come under criticism for providing loan guarantees to Solyndra,[113] its SunShot initiative has funded successful companies such as EnergySage[114] andZep Solar.[115]

In his January 24, 2012,State of the Union address, President Barack Obama restated his commitment to renewable energy, stating that he "will not walk away from the promise of clean energy." Obama called for a commitment by theDefense Department to purchase 1,000 MW of renewable energy. He also mentioned the long-standingInterior Department commitment to permit 10,000 MW of renewable energy projects on public land in 2012.[12]

SomeEnvironmental Protection Agency facilities in the United States use renewable energy for all or part of their supply at the following facilities.[116]

Energy technologies receive government subsidies. In 2016, federal government energy-specific subsidies and supports for renewables, fossil fuels, and nuclear energy were $6,682 million, $489 million and $365 million, respectively.[117]All but a few U.S. states now have incentives in place to promote renewable energy, while more than a dozen have enacted new renewable energy laws in recent years.[when?][30] Renewable energy suffered a political setback in the United States in September 2011 with the bankruptcy ofSolyndra, a company that had received a $535 million federal loan guarantee.[118][119]

In May 2024, the Biden administration doubledtariffs on solar cells imported from China and more than tripled tariffs onlithium-ion electric vehicle batteries imported from China.[120] The tariff increases will be phased in over a period of three years.[120]

Net metering

[edit]
This section is an excerpt fromNet metering in the United States.[edit]
Growth of net metering in the United States

Net metering is a policy by many states in the United States designed to help the adoption of renewable energy. Net metering was pioneered in the United States as a way to allow solar and wind to provide electricity whenever available and allow use of that electricity whenever it was needed, beginning with utilities in Idaho in 1980, and in Arizona in 1981.[121] In 1983, Minnesota passed the first state net metering law.[122] As of March 2015, 44 states andWashington, D.C. have developed mandatory net metering rules for at least some utilities.[123] However, although the states' rules are clear, few utilities actually compensate at full retail rates.[124]

Net metering policies are determined by states, which have set policies varying on a number of key dimensions. TheEnergy Policy Act of 2005 required state electricity regulators to "consider" (but not necessarily implement) rules that mandatepublic electric utilities make net metering available to their customers upon request.[125] Several legislative bills have been proposed to institute a federal standard limit on net metering. They range from H.R. 729, which sets a net metering cap at 2% of forecasted aggregate customer peak demand, to H.R. 1945, which has no aggregate cap, but does limit residential users to 10 kW, a low limit compared to many states, such as New Mexico, with an 80,000 kW limit, or states such as Arizona, Colorado, New Jersey, and Ohio, which limit as a percentage of load.[126]

Initiatives

[edit]

SunShot

[edit]

In February 2011, the U.S. Department of Energy (DOE) launched itsSunShot Initiative, a collaborative national effort to cut the total cost of photovoltaic solar energy systems by 75% by 2020.[127] Reaching this goal would make unsubsidized solar energy cost-competitive with other forms of electricity and getgrid parity .[128] The SunShot initiative included a crowdsourced innovation program run in partnership withTopcoder, during which 17 different solar energy application solutions were developed in 60 days.[129] In 2011, the price was $4/W, and the SunShot goal of $1/W by 2020 was reached in 2017.[130]

Wind Powering America

[edit]

Wind Powering America (WPA) is another DOE initiative that seeks to increase the use of wind energy. WPA collaborates with state and regional stakeholders, including farmers, ranchers, Native Americans, rural electric cooperatives, consumer-owned utilities and schools.[citation needed]

WPA has focused on states with strong potential for wind energy generation but with few operational projects. WPA provides information about the challenges, benefits, and impacts of wind technology implementation.

Solar America Initiative

[edit]

TheSolar America Initiative (SAI)[131] is a part of the FederalAdvanced Energy Initiative to accelerate the development of advanced photovoltaic materials with the goal of making it cost-competitive with other forms of renewable electricity by 2015.

The DOE Solar Energy Technology Program (SETP) intended to achieve the goals of the SAI through partnerships and strategic alliances by focusing primarily on four areas:

  • Market Transformation — activities that address marketplace barriers
  • Device and Process Proof of Concept — R&D activities that address novel devices or processes with significant performance or cost advantages
  • Component Prototype and Pilot-Scale Production — R&D activities emphasizing development of prototype photovoltaic (PV) components or systems at pilot-scale with demonstrated cost, reliability or performance advantages
  • System Development and Manufacturing — collaborative R&D activities among industry and university partners

California Solar Initiative

[edit]

As part of former GovernorArnold Schwarzenegger's Million Solar Roofs Program, California set a goal to create 3,000 megawatts of new, solar-produced electricity by 2017, with funding of $2.8 billion.[132]

TheCalifornia Solar Initiative offers cash incentives on solar PV systems of up to $2.50 a watt. These incentives, combined with federal tax incentives, can cover up to 50% of the total cost of a solar panel system.[132] Financial incentives to support renewable energy are available in some other US states.[133]

Green Power Partnership

[edit]

The EPA named the top 20 partners in itsGreen Power Partnership that are generating their own renewable energy on-site. Combined, they generate more than 736 million kilowatt-hours of renewable energy on-site each year, enough to power more than 61,000 average U.S. homes.[134]

Selected state renewable portfolio standards with 2018 revisions. 29 states have adopted policies targeting a percentage of their energy to come from renewable sources.

Renewable portfolio standards

[edit]

ARenewable Portfolio Standard refers to legislation that creates a market in tradeable renewable or green electricity certificates. Electricity distributors or wholesaler purchasers of electricity are required to source a specified percentage of their electricity (portfolio) from renewable generation sources. Liable entities that fall short of their quota can purchase certificates from accredited suppliers who have generated renewable electricity and obtained and registered certificates to sell on that market.

Bans and moratoriums

[edit]

By February 2024, at least 15% of counties in the United States had imposed bans or other restrictions to prevent construction of wind and solar projects.[135]

Renewable energy organizations

[edit]

TheAmerican Council on Renewable Energy (ACORE), is a non-profit organization with headquarters inWashington, D.C. It was founded in 2001 as a unifying forum for bringing renewable energy into the mainstream of America's economy and lifestyle. In 2010 ACORE had over 700 member organizations.[136] In 2007, ACORE publishedOutlook On Renewable Energy In America, a two volume report about the future of renewable energy in the United States.[137] It has been said that this report exposes a "new reality for renewable energy in America."[138]

TheEnvironmental and Energy Study Institute (EESI) is a non-profitorganization which promotes environmentallysustainable societies. Founded in 1984 by a group ofCongressional Members, EESI seeks to be a catalyst that moves society away from environmentally damagingfossil fuels and toward a clean energy future. EESI presents policy solutions that will result in decreasedglobal warming andair pollution; improvements in public health,energy security and rural economic development opportunities; increased use ofrenewable energy sources and improvedenergy efficiency.

An important part of the mission of theNational Renewable Energy Laboratory (NREL) is the transfer of NREL-developed technologies to renewable energy markets. NREL's Technology Transfer Office supports laboratory scientists and engineers in the successful and practical application of their expertise and the technologies they develop. R&D staff and facilities are recognized and valued by industry, as demonstrated through many collaborative research projects and licensed technologies with public and private partners. NREL's innovative technologies have also been recognized with 39 R&D 100 Awards.

TheRocky Mountain Institute (RMI) is an organization dedicated to research, publication, consulting, and lecturing in the general field ofsustainability, with a special focus on profitable innovations for energy and resource efficiency. RMI is headquartered inSnowmass, Colorado, and also maintains offices inBoulder, Colorado. RMI is the publisher of the bookWinning the Oil Endgame.

Community renewable energy

[edit]
See also:Community solar

Community renewable energy efforts incorporate calls for energy democracy to place the responsibility of the planning and implementation processes of a renewable energy project within a community.[139] Community based renewable energy projects are expected to have a wide range of positive social impacts on top of decreasing fossil fuel usage, such as "acceptance of renewable energy developments; awareness of renewable and sustainable energy technologies and issues; uptake of low carbon technologies; and sustainable/pro-environmental behavior".[140] However, in a survey conducted within a community about community renewable energy projects, results showed that while there was widespread support for implementation, there were low levels of desire for personal involvement, meaning many people shied away from potentially serving as project leaders.[140] Often times, the degree of ownership is debated within the planning process.[141]

Community renewable energy projects prioritize the participation of the end-user communities, challenging the traditional power structures of renewable energy projects. Community renewable energy projects, and the slew of positive social impacts often associated with them, are only successful with institutional support.[140] Scholarships highlights the prevalence of institutional support in the EU and the UK for community based renewable energy, and not surprisingly, there are many more successful projects in Europe than there are in the United States.[142]

Existing literature shows a clear lack of institutional support for community-based renewable energy projects within the United States. However, market-based investments in fields such as community-based solar and wind projects are evident in the US. The private sector has especially increased interest in community solar energy projects within the past couple of years.[143] The differing approaches to community-based renewable energy projects globally may be attributed to the differences within the liberal welfare states of Europe compared to the United States.

Potential resources

[edit]
Non-powered dams hydroelectric potential

The United States has the potential of installing 11terawatt (TW) of onshore wind power and 4 TW of offshore wind power, capable of generating over 47,000 TWh. The potential for concentrated solar power in the southwest is estimated at 10 to 20 TW, capable of generating over 10,000 TWh.[144]

A 2012 report by theNational Renewable Energy Laboratory evaluates the potential energy resources for each state of the United States.[145][146]

Total technical potential
TypeResourcePotential capacity (GW)Potential generation (TWh)
SolarUrban utility-scale PV1,2002,200
Rural utility-scale PV153,000280,600
Rooftop PV664800
Concentrating solar power38,000116,100
Total192,922399,810
WindOnshore wind power11,00032,700
Offshore wind power4,20017,000
Total15,17849,760
BioenergyBiomass/biofuel/methane62488
Total62488
GeothermalHydrothermal power systems38300
Enhanced geothermal systems3,97631,300
Total4,01431,653
HydroHydropower60259
Total60259
Total212,236481,970
Technical potential by state
SolarWind
Urban Utility Scale PVRural Utility Scale PVRooftop PVConcentrating Solar Power (CSP)Onshore Wind PowerOffshore Wind Power
StateMWGWhMWGWhMWGWhMWGWhMWGWhMWGWh
Alabama20,45335,8512,114,7923,706,83912,51615,4760011828300
Alaska1121669,005,1938,282,9761,29200493,3461,373,433
Arizona52,611121,3065,147,08711,867,69414,88022,7363,527,62412,544,33410,90426,036
Arkansas15,95728,9612,747,4784,986,3896,7738,485009,20022,892
California111,404246,0084,010,3678,855,91775,908106,4112,725,6768,490,91634,11089,862654,8332,662,580
Colorado19,16743,4714,514,21810,238,08411,79716,1623,097,8369,154,524387,2191,096,036
Connecticut4,8337,71712,29319,6285,9036,6160027627,17126,545
Delaware9,12014,856167,170272,3331,8762,18500102215,03860,654
Florida39,85072,7872,812,6535,137,34749,40763,9871303590.4019,64934,684
Georgia24,27443,1673,088,4655,492,18324,60731,1160013032358,629220,807
Hawaii1,6673,72520,67438,0332,7295,53915,3702,4687,787736,9452,836,735
Idaho12,05123,1952,045,4223,936,8483,2244,0511,267,2233,502,87718,07644,320
Illinois63,597103,5524,969,1648,090,98526,31230,08600249,882649,46815,87266,070
Indiana61,17598,8153,018,7494,876,18614,85617,15100148,228377,60445166
Iowa15,57427,0924,020,6066,994,1597,1918,64600570,7141,723,588
Kansas15,21831,7066,959,79214,500,1496,8728,9622,884,8167,974,256952,3713,101,576
Kentucky16,27126,5151,119,3231,823,97710,53812,3120061147
Louisiana32,39155,6692,394,0544,114,60511,84014,36800410935340,6151,200,699
Maine1,9253,216658,6891,100,3272,1412,4430011,25128,743147,418631,960
Maryland18,18028,551373,097585,94912,73814,850001,4833,63251,909200,852
Massachusetts10,95917,47051,56882,20510,31611,723001,0282,827184,076799,344
Michigan33,57050,8453,443,5475,215,64021,52023,5280059,042143,908422,5771,739,801
Minnesota20,12833,3706,510,10310,792,81412,48614,32200489,2711,428,52529,215100,455
Mississippi15,24326,3662,879,8564,981,2526,9688,61400003,21310,172
Missouri18,07630,5493,156,8065,335,26913,08116,16000274,355689,519
Montana6,11511,3714,402,7668,187,3411,8772,194557,2241,540,288944,0052,746,272
Nebraska6,80812,9544,869,9209,266,7574,2285,3371,753,4554,846,929917,9993,011,253
Nevada10,78524,8943,732,0558,614,4547,13710,7672,557,9098,295,7537,24717,709
New Hampshire2,3513,79035,57857,3642,0622,299002,1355,7063,45614,478
New Jersey25,30144,307251,127439,77413,69115,76800132317101,935429,808
New Mexico30,99171,3567,087,30116,318,5434,2236,5134,860,16516,812,349492,0841,399,157
New York32,76452,803926,1271,492,56625,14928,7800025,78163,566146,077614,280
North Carolina37,89468,3462,346,8274,232,79023,09628,420008082,037306,0201,269,627
North Dakota2,7444,8715,482,9409,734,4481,6221,91713,04236,050770,1952,537,825
Ohio57,14386,4962,395,6003,626,18227,47530,0640054,920129,14341,804170,561
Oklahoma25,61950,0414,782,7529,341,9209,33712,4431,812,9525,068,036516,8221,521,652
Oregon12,99225,7831,884,8153,740,4797,8428,3231,017,3322,812,12627,10068,767225,008962,723
Pennsylvania36,19656,162356,630553,35619,90222,215003,3078,2315,67423,571
Rhode Island1,1601,7888,84413,6361,5341,711004713020,96589,115
South Carolina19,09933,8351,555,1412,754,97311,53114,41300185428133,217542,218
South Dakota2,4424,5745,344,81010,008,8731,6822,083589,5561,629,660882,4132,901,858
Tennessee28,59850,2431,266,9952,225,99016,22719,68500309766
Texas154,251294,68420,411,04438,993,58260,25678,7177,743,42022,786,7501,901,5305,552,400271,4431,101,063
Utah14,05730,4922,390,2605,184,8785,6457,5141,638,1545,067,54713,10431,552
Vermont1,0581,63235,48754,7281,0301,115002,9497,796
Virginia15,66427,4511,074,1351,882,46718,66922,267001,7944,58989,073361,054
Washington19,31333,690996,4101,738,15113,49413,59958,502161,71318,47947,250120,964488,025
Washington, D.C.DC58002,1002,4900000
West Virginia2,0093,02435,00452,6943,8104,220001,8834,952
Wisconsin34,93054,9393,205,8305,042,25912,26213,93900103,757255,26680,672317,755
Wyoming3,6047,2322,854,2675,727,2241,1701,5511,955,8465,406,407552,0731,653,857
TOTAL1,217,6992,231,694152,973,829280,613,217664,825818,73338,066,401116,146,24510,954,75932,784,0054,223,51416,975,802
Technical potential by state [continued]
BioenergyGeothermalHydroElectricity[147]Total[148]
Biomass/BiofuelMethaneHydrothermalEnhanced GeothermalHydropowerTotal20102010
StateMWGWhMWGWhMWGWhMWGWhMWGWhGWhGWhGWh
Alabama1,42011,1931941,5330067,921535,4909374,1034,310,76790,873574,000
Alaska655138621,95815,4375,40523,6769,696,2646,247188,000
Arizona1381,0881068371,0568,330157,1721,239,1482981,30325,832,81172,833410,000
Arkansas1,82414,3811351,0630079,734628,6221,3916,0935,696,88648,194330,000
California1,57412,4081,96715,51116,605130,921170,4951,344,1796,85530,02421,984,738258,5312,293,000
Colorado3702,9131551,2241,1358,954158,7591,251,6581,7787,78921,820,81552,918445,000
Connecticut6349553415007,11356,078211922118,47830,392221,000
Delaware6551249385002,89422,813731373,79211,60675,000
Florida1,2269,6644683,6930047,458374,1611566825,697,366231,2101,284,000
Georgia1,86214,6822822,2210044,800353,2064541,9886,159,694140,672925,000
Hawaii66524252002,61720,6325942,6022,925,60810,01780,000
Idaho7335,776231832,18217,205125,984993,2574,28318,7588,546,46922,798156,000
Illinois3,51827,7385364,2220085,750676,0561,1154,8839,653,061144,7611,154,000
Indiana1,89514,9423782,9780055,081434,2585472,3945,824,494105,994841,000
Iowa3,48827,5021811,4250076,914606,3906432,8189,391,62145,445437,000
Kansas1,53512,1049675300125,530989,6765732,50826,621,69040,421342,000
Kentucky8947,0481621,2740061,474484,6599724,2552,360,18793,569579,000
Louisiana1,77814,0161098570061,425484,2715532,4235,887,84485,0801,191,000
Maine5424,273161250047,828377,0758943,9162,152,07911,532119,000
Maryland2672,1021561,2270010,99086,649186814924,62665,335434,000
Massachusetts1331,0451401,1040011,69892,2272731,1971,009,14157,123409,000
Michigan1,1879,3583222,5390058,073457,8502701,1817,644,650103,649820,000
Minnesota2,58320,3621311,0300046,903369,7852871,25512,761,91767,800547,000
Mississippi1,80214,2101371,0770070,910559,0565052,2115,602,95949,687349,000
Missouri1,50111,8382722,14800105,967835,4451,6437,1986,928,12686,085565,000
Montana6254,925191478316,548208,9431,647,3043,32114,54714,160,93613,423118,000
Nebraska2,06416,2729575100117,706927,9967173,14218,091,39129,849247,000
Nevada37289413255,74945,321160,0931,262,17519384618,272,53333,773189,000
New Hampshire121954493900013,231104,3143971,741191,03610,89087,000
New Jersey1541,2122932,311004,46935,230125549969,27679,179717,000
New Mexico76595453541,64112,933179,8551,417,9783111,36336,041,14222,428199,000
New York7055,5583742,9500047,615375,4011,5326,7112,642,615144,6241,093,000
North Carolina1,63212,8704793,7800053,366420,7416933,0376,041,648136,415793,000
North Dakota1,0388,18643000104,037820,2267934713,143,90012,956141,000
Ohio1,39611,0094273,3630062,902495,9226953,0464,555,786154,1451,124,000
Oklahoma5244,1281229650098,892779,6676893,01616,781,86957,846455,000
Oregon1,75013,7931138912,30818,200115,944914,1054,15218,1848,583,37446,026286,000
Pennsylvania8016,3149057,1320041,520327,3411,9118,3681,012,689148,9641,102,000
Rhode Island1814360474001,45811,4921459118,5497,79958,000
South Carolina8866,9851811,4300046,183364,1054311,8893,720,27682,479487,000
South Dakota1,0638,3803023500116,942921,9732391,04715,478,68211,356111,000
Tennessee7736,0952521,9840054,335428,3801,3125,7452,738,888103,522660,000
Texas2,03916,0787485,89800384,3553,030,2516863,00671,862,428358,4583,449,000
Utah55434544281,64712,982119,150939,3818063,52811,278,73628,044224,000
Vermont6249226203004,51835,6173901,710103,2935,59543,000
Virginia9987,8663172,4980036,877290,7378353,6572,602,587113,806733,000
Washington1,56212,3121921,5143232,54771,413563,0246,22127,2493,089,07490,380597,000
Washington, D.C.DC8621500896980.1913,26411,87754,000
West Virginia3052,407362810033,153261,3761,0064,408333,36232,032217,000
Wisconsin1,42311,2222632,0730082,087647,1731,4552,2876,346,91368,752528,000
Wyoming645036501741,373135,7281,070,0791,2894,44513,872,72117,113157,000
TOTAL50,707399,77411,23288,55138,227301,3823,975,73531,344,69660,329258,953481,963,0523,754,49328,636,000

Note: Total use is inflated to create an oil equivalence.

See also

[edit]

International:

General:

References

[edit]
  1. ^ab"Primary Energy Production by Source"(PDF). EIA. February 3, 2024.
  2. ^abcdefghijklmn"Electric Power Monthly". EIA.
  3. ^"Electricity Net Generation: Total (All Sectiors)"(PDF).EIA. January 29, 2024. RetrievedFebruary 3, 2024.
  4. ^"ACP Clean Power Quarterly Report Q3 2021"(PDF).cleanpower.org. American Clean Power Association. Archived fromthe original(PDF) on November 29, 2021. RetrievedNovember 29, 2021.
  5. ^"U.S. Installed and Potential Wind Power Capacity and Generation".WINDExchange.United States Department of Energy. RetrievedNovember 29, 2021.
  6. ^Editorial Board (April 26, 2014)."The Koch Attack on Solar Energy".New York Times.
  7. ^"National Solar Jobs Census". The Solar Foundation.
  8. ^abc"SEGS I, II, III, IV, V, VI, VII, VIII & IX".fplenergy.com. Archived fromthe original on August 5, 2014.
  9. ^"President Obama Touts Clean Energy on Earth Day". Archived fromthe original on April 29, 2009.
  10. ^Ron Pernick andClint Wilder (2012)."Clean Tech Nation"(PDF). p. 5. Archived fromthe original(PDF) on April 15, 2023. RetrievedSeptember 4, 2012.
  11. ^"Total Energy". US Energy Information Administration.
  12. ^abBarack Obama's Fourth State of the Union Address  – viaWikisource.
  13. ^43 U.S.C. § 3004
  14. ^Grandoni, Dino (May 9, 2023)."Biden's energy goals run up against painful WWII legacy".The Washington Post. pp. A3.
  15. ^American Council On Renewable Energy, (2007).The Outlook on Renewable Energy in America volume II: Joint Summary ReportArchived March 13, 2022, at theWayback Machine page 7
  16. ^abPresident Obama Calls for Greater Use of Renewable EnergyArchived August 27, 2012, at theWayback Machine
  17. ^"Remarks of President Barack Obama -- Address to Joint Session of Congress".whitehouse.gov. February 24, 2009 – viaNational Archives.
  18. ^Synapse Energy Economics (November 16, 2011)."Toward a Sustainable Future for the U.S. Power Sector: Beyond Business as Usual 2011"(PDF). Archived fromthe original(PDF) on July 17, 2016. RetrievedDecember 4, 2011.
  19. ^Millstein, Dev; O'Shaughnessy, Eric; Wiser, Ryan (May 29, 2024)."Climate and air quality benefits of wind and solar generation in the United States from 2019 to 2022".Cell Reports Sustainability.1 (6) 100105.doi:10.1016/j.crsus.2024.100105 – via Cell.
  20. ^Plumer, Brad (May 13, 2020)."In a First, Renewable Energy Is Poised to Eclipse Coal in U.S."The New York Times.ISSN 0362-4331. RetrievedMay 31, 2020.
  21. ^ab"Short-Term Energy Outlook - U.S. Energy Information Administration (EIA)".www.eia.gov.
  22. ^Gearino, Dan (March 10, 2022)."Inside Clean Energy: Three Charts to Help Make Sense of 2021, a Year Coal Was Up and Solar Was Way Up".Inside Climate News.Archived from the original on March 13, 2022. Credited data source:Energy Information Administration.
  23. ^"Chapter 1 / Clean Power at a Glance / Annual Installations (from 2022 Annual Market Report)".CleanPower.org. American Clean Power. May 2023.Archived from the original on May 24, 2023. — From page 10 of theClean Power Annual Market Report 2022 (archive)
  24. ^"Clean Power Annual Market Report 2023"(PDF). American Clean Power. March 2024. p. 9.Archived(PDF) from the original on April 20, 2024. Actual data listing:"Explore the data" in "Clean Energy Powers America"
  25. ^Jones, Dave; Rangelova, Kostantsa; Walter, Daan; Worthington, Bryony (March 12, 2025)."US Electricity 2025 Special Report"(PDF). Ember Energy. p. 17. ● Source chart reproduced by:Calma, Justine (March 12, 2025)."Solar and wind beat coal in the US for the first time".The Verge.Archived from the original on March 13, 2025.
  26. ^Gearino, Dan (March 9, 2023)."One State Generates Much, Much More Renewable Energy Than Any Other, and It's Not California / Here's a state-by-state tally of the leaders and laggards for wind, solar and other renewable energy in 2022". Inside Climate News.Archived from the original on March 9, 2023. (archive of chart) Gearino cites IEA as data source, crediting Paul Horn for a related bar chart. ● Population data from"Table 2: Resident Population for the 50 States, the District of Columbia, and Puerto Rico: 2020 Census"(PDF).Census.gov. United States Census Bureau. 2021.Archived(PDF) from the original on March 6, 2023.
  27. ^"Renewable energy explained".eia.gov. U.S. Energy Information Administration. April 2022.Archived from the original on March 13, 2023.Data source: U.S. Energy Information Administration,Monthly Energy Review, Appendix D.1, and Tables 1.3 an 10.1, April 2022, preliminary data for 2021. / Wood includes wood and wood waste; Renewables includes biofuels, geothermal, solar and wind.
  28. ^"Electric Power Monthly"(PDF). US Energy Information Administration.
  29. ^"Renewables Portfolio Standard Quarterly Report 1st and 2nd Quarter 2012"(PDF). California Public Utilities Commission. Archived fromthe original(PDF) on February 3, 2013. RetrievedMarch 26, 2013.
  30. ^abc"Renewables Becoming Cost-Competitive With Fossil Fuels in the U.S." Worldwatch Institute. Archived fromthe original on August 6, 2012. RetrievedAugust 4, 2012.
  31. ^Metea, Rachel (January 16, 2025). [Just a fraction of federal land could power carbon-free future "Just a fraction of federal land could power carbon-free future"].pv magazine USA. RetrievedJanuary 20, 2025.{{cite news}}:Check|url= value (help)
  32. ^"Texas City Leads The Way On Renewable Energy".NPR.org.
  33. ^"Planned Generating Capacities". US Energy Information Administration. RetrievedJune 17, 2020.[dead link]
  34. ^"Wind has overtaken the top position for renewable generation in the U.S., EIA says". February 27, 2020. Archived fromthe original on May 26, 2022. RetrievedApril 7, 2021.
  35. ^"Generation Records Fall at Grand Coulee Dam". U.S. Bureau of Reclamation. Archived fromthe original on October 7, 2006. RetrievedNovember 18, 2006.
  36. ^abcAmerican Wind Energy Association (2009).Annual Wind Industry Report, Year Ending 2008Archived 2009-04-20 at theWayback Machine pp. 9–10.
  37. ^"Electric Power Monthly - U.S. Energyy Information Administration".
  38. ^DOE charts show why climate doom and gloom isn't needed 3.10.2016 Guardian
  39. ^"Alta Wind Energy Center (AWEC), California)". October 2020.
  40. ^ab"Strengthening America's Energy Security with Offshore Wind"(PDF). U.S. Department of Energy. April 2012.
  41. ^"Direct Federal Financial Interventions and Subsidies in Energy in Fiscal Year 2013".Energy Information Administration. RetrievedNovember 10, 2015.
  42. ^"Industry Statistics". Archived fromthe original on July 27, 2012.
  43. ^"Farm Progress - Effective solutions & advertising for US agriculture marketers".Farm Progress Agricultural Marketing. Archived fromthe original on August 2, 2012. RetrievedJuly 30, 2012.
  44. ^"24 governors ask President to focus on wind energy deployment".Renewable Energy World. August 25, 2011.
  45. ^Alvarez, Alayna; Fitzpatrick, Alex; Beheraj, Kavya (April 8, 2024)."Colorado's solar and wind production blows away 2014 records".www.axios.com. RetrievedApril 10, 2024.
  46. ^Terra-Gen Press ReleaseArchived 2015-09-02 at theWayback Machine, 17 April 2012
  47. ^abcd"Drilling Down: What Projects Made 2008 Such a Banner Year for Wind Power?". Archived fromthe original on July 15, 2011. RetrievedMarch 7, 2013.
  48. ^abc"AWEA: U.S. Wind Energy Projects – Texas". Archived fromthe original on December 29, 2007.
  49. ^ab"AWEA: U.S. Wind Energy Projects – Indiana". Archived fromthe original on September 18, 2010.
  50. ^"News Archives". May 30, 2023. Archived fromthe original on March 12, 2023. RetrievedMarch 15, 2023.
  51. ^ab"Electric Power Annual". US Energy Information Administration. RetrievedNovember 4, 2022.
  52. ^"Solar Star, Largest PV Power Plant in the World, Now Operational". GreenTechMedia.com. June 24, 2015.
  53. ^"The Solar Star Projects". September 20, 2016. Archived fromthe original on November 5, 2015. RetrievedDecember 10, 2015.
  54. ^"Solar Star I & II Solar".www.mortenson.com.
  55. ^"DOE Closes on Four Major Solar Projects".Renewable Energy World. September 30, 2011. Archived fromthe original on November 11, 2011. RetrievedNovember 13, 2011.
  56. ^Steve Leone (December 7, 2011)."Billionaire Buffett Bets on Solar Energy".Renewable Energy World.
  57. ^"Million Solar Roofs Initiative"(PDF). Archived fromthe original(PDF) on April 2, 2012.
  58. ^"Washington State Passes Progressive Renewable Energy Legislation". Archived from the original on February 13, 2007. RetrievedDecember 16, 2007.
  59. ^US Bureau of Land Management,Solar Energy ProgramArchived September 12, 2015, at theWayback Machine, 29 Nov. 2014.
  60. ^"Solar Energy Zones".solareis.anl.gov/sez. Solar Energy Development PEIS Information Center. RetrievedAugust 24, 2016.
  61. ^"Solar PEIS Maps".solareis.anl.gov.
  62. ^"Spain pioneers grid-connected solar-tower thermal power"(PDF). Archived fromthe original(PDF) on September 27, 2007.
  63. ^NREL report firms up land-use requirements for solarArchived 2015-09-07 at theWayback Machine, National Renewable Energy Laboratory, 30 July 2013.
  64. ^A Mojave power failure A shortfall in Mojave protection bill,Los Angeles Times, editorial, December 26, 2009.
  65. ^"Nevada: Solar energy advances discussed". Archived fromthe original on May 23, 2011.
  66. ^Steven Mufson.Solar power project in Mojave Desert gets $1.4 billion boost from stimulus fundsWashington Post, February 23, 2010.
  67. ^Michael R. Blood and Brian Skolof,"Huge thermal plant opens as solar industry grows"Archived February 22, 2014, at theWayback Machine,Associated Press, February 13, 2014.
  68. ^"DOE Finalizes $737 Million Loan Guarantee to Tonopah Solar Energy for Nevada Project" (Press release). Loan Programs Office (LPO),Dept. of Energy (DOE). September 28, 2011. Archived fromthe original on October 15, 2011. RetrievedSeptember 29, 2011.
  69. ^abcGeothermal Energy Association,6 Million American Households to be Powered by Geothermal Energy, New Survey Reports
  70. ^<"Electric Power Monthly"[1] retrieved 2020-6-14
  71. ^"Wave power - U.S. Energy Information Administration (EIA)".www.eia.gov. May 23, 2024. RetrievedMay 1, 2025.
  72. ^abcEnvironmental and Energy Study Institute,Solar water heatingArchived October 2, 2011, at theWayback Machine
  73. ^"Alternative Fuels Data Center: Ethanol Fuel Basics".afdc.energy.gov.
  74. ^abcWorldwatch Institute and Center for American Progress (2006).American energy: The renewable path to energy security
  75. ^Ethanol Opportunities and Challenges: A State-by-State Look at Higher Blends[2]
  76. ^"USDA Blender Pump Grants Aimed at Increasing Availability of Mid-Level Blends | Article | EESI".www.eesi.org.
  77. ^"Direct Federal Financial Interventions and Subsidies in Energy in Fiscal Year 2010". Energy Information Administration. RetrievedApril 29, 2012.
  78. ^S.C.E. Jupe; A. Michiorri; P.C. Taylor (2007). "Increasing the energy yield of generation from new and renewable energy sources".Renewable Energy.14 (2):37–62.
  79. ^"Defense-scale supercomputing comes to renewable energy research".Sandia National Laboratories. Archived fromthe original on August 28, 2016. RetrievedApril 16, 2012.
  80. ^"Sandia National Laboratories"(PDF).Sandia National Laboratories. Archived fromthe original(PDF) on October 20, 2011. RetrievedApril 16, 2012.
  81. ^*Chakrabarty, Gargi, April 16th, 2009. "Stimulus leaves NREL in cold"Denver Post"
  82. ^abChumley, Cheryl."BP Gives Up on Solar Power".Heartlander Magazine. Archived fromthe original on February 1, 2013. RetrievedNovember 28, 2012.
  83. ^"Stimulus leaves NREL in cold". Denver Post. April 15, 2009. RetrievedApril 16, 2012.
  84. ^"Solar Research". NREL. RetrievedApril 16, 2012.
  85. ^"Photovoltaics". Sandia. Archived fromthe original on November 1, 2014. RetrievedApril 16, 2012.
  86. ^"'Major discovery' from MIT primed to unleash solar revolution". MIT News. Archived fromthe original on March 28, 2014. RetrievedApril 17, 2012.
  87. ^"Breakthrough: World's most efficient solar panel". SmartPlanet. RetrievedApril 17, 2012.
  88. ^"Wind energy research reaps rewards". NASA. Archived fromthe original on March 14, 2021. RetrievedApril 17, 2012.
  89. ^"Wind energy". Sandia. Archived fromthe original on October 9, 2014. RetrievedApril 17, 2012.
  90. ^"Wind research". NREL. RetrievedApril 17, 2012.
  91. ^"Wind resource evaluation at the Caltech Field Laboratory for Optimized Wind Energy (FLOWE)"(PDF). Caltech. Archived fromthe original(PDF) on December 16, 2011. RetrievedApril 17, 2012.
  92. ^American Coalition for Ethanol (June 2, 2008)."Responses to Questions from Senator Bingaman"(PDF). American Coalition for Ethanol. Archived fromthe original(PDF) on October 4, 2011. RetrievedApril 2, 2012.
  93. ^National Renewable Energy Laboratory (March 2, 2007)."Research Advantages: Cellulosic Ethanol"(PDF). National Renewable Energy Laboratory. Archived fromthe original(PDF) on January 25, 2012. RetrievedApril 2, 2012.
  94. ^M.R. Schmer; K.P. Vogel; R.B. Mitchell; R.K. Perrin (2008)."Net energy of cellulosic ethanol from switchgrass".Proceedings of the National Academy of Sciences of the United States of America.105 (2):464–469.Bibcode:2008PNAS..105..464S.doi:10.1073/pnas.0704767105.PMC 2206559.PMID 18180449.
  95. ^Charles E. Wyman (2007). "What is (and is not) vital to advancing cellulosic ethanol".Trends in Biotechnology.25 (4):153–157.doi:10.1016/j.tibtech.2007.02.009.PMID 17320227.
  96. ^Sandia National Laboratories."Biomass". Sandia National Laboratories. Archived fromthe original on May 10, 2012. RetrievedApril 17, 2012.
  97. ^Joint BioEnergy Initiative."About JBEI". Sandia National Laboratories. Archived fromthe original on May 25, 2012. RetrievedApril 17, 2012.
  98. ^Jeff Wise (November 2006)."The Truth about hydrogen". Popular Mechanics. RetrievedApril 17, 2012.
  99. ^NREL."Hydrogen". NREL. RetrievedApril 17, 2012.
  100. ^Sandia."Hydrogen". Sandia. RetrievedApril 17, 2012.
  101. ^"The Potential for Geologic Hydrogen for Next-Generation Energy | U.S. Geological Survey".
  102. ^Alderman, Liz (December 4, 2023)."It Could be a Vast Source of Clean Energy, Buried Deep Underground".The New York Times.
  103. ^Wei, Max; Patadia, Shana; Kammen, Daniel M. (February 1, 2010)."Putting renewables and energy efficiency to work: How many jobs can the clean energy industry generate in the US?".Energy Policy.38 (2):919–931.doi:10.1016/j.enpol.2009.10.044.ISSN 0301-4215.
  104. ^abcMarkandya, Anil; Arto, Iñaki; González-Eguino, Mikel; Román, Maria V. (October 1, 2016)."Towards a green energy economy? Tracking the employment effects of low-carbon technologies in the European Union".Applied Energy.179:1342–1350.Bibcode:2016ApEn..179.1342M.doi:10.1016/j.apenergy.2016.02.122.hdl:10810/20788.ISSN 0306-2619.
  105. ^abcdefLehr, Ulrike; Lutz, Christian; Edler, Dietmar (August 1, 2012)."Green jobs? Economic impacts of renewable energy in Germany".Energy Policy.47:358–364.Bibcode:2012EnPol..47..358L.doi:10.1016/j.enpol.2012.04.076.ISSN 0301-4215.
  106. ^"2019 Report".2020 U.S. Energy and Employment Report (USEER). Archived fromthe original on March 7, 2021. RetrievedMarch 1, 2021.
  107. ^"U.S. energy facts explained - consumption and production - U.S. Energy Information Administration (EIA)".www.eia.gov. RetrievedMarch 1, 2021.
  108. ^Chiu, Allyson; Guskin, Emily; Clement, Scott (October 3, 2023)."Americans don't hate living near solar and wind farms as much as you might think".The Washington Post.Archived from the original on October 3, 2023.
  109. ^De Pinto, Jennifer; Backus, Fred (September 15, 2019)."Younger Americans views' on climate change: More serious, yet more optimistic".CBS News. RetrievedSeptember 15, 2019.
  110. ^"Net Metering". Archived fromthe original on May 21, 2009.
  111. ^"Working Paper Abstract 257 – Energy Institute at Haas - University of California Berkeley, Haas School of Business".ei.haas.berkeley.edu. RetrievedAugust 29, 2015.
  112. ^Clean Edge (2009).Clean Energy Trends 2009Archived 2009-03-18 at theWayback Machine pp. 1-4.
  113. ^Mulkern, Anne C. (September 6, 2011)."Solyndra Bankruptcy Reveals Dark Clouds in Solar Power Industry".The New York Times. RetrievedSeptember 3, 2015.
  114. ^Casey, Tina (October 25, 2013)."$60 Million More For Low Cost Solar Power".Clean Technica. Sustainable Enterprises Media, Inc. RetrievedSeptember 3, 2015.
  115. ^"California: SunShot-Supported Technology Maximizes Taxpayer's Investment". U.S. Department of Energy. January 24, 2014. RetrievedSeptember 3, 2015.
  116. ^U.S. Environmental Protection Agency,Onsite Renewable Technologies
  117. ^Public Domain This article incorporatespublic domain material fromDirect Federal Financial Interventions and Subsidies in Energy in Fiscal Year 2016.United States Department of Energy.
  118. ^John Broder (October 10, 2011)."The Year of Peril and Promise in Energy Production".New York Times.
  119. ^"U.S. Rejected Solyndra Restructuring Before Shutdown, Memo Says".Bloomberg.com. September 12, 2011 – via www.bloomberg.com.
  120. ^abBoak, Josh; Hussein, Fatima; Wiseman, Paul; Tang, Didi (May 14, 2024)."Biden hikes tariffs on Chinese EVs, solar cells, steel, aluminum — and snipes at Trump".AP News. RetrievedMay 16, 2024.
  121. ^"Current Experience With Net Metering Programs (1998)"(PDF). Archived fromthe original(PDF) on May 21, 2013. RetrievedDecember 15, 2013.
  122. ^"Minnesota". Dsireusa.org. Archived fromthe original on October 19, 2012. RetrievedDecember 15, 2013.
  123. ^"Net Metering"(PDF).ncsolarcen-prod.s3.amazonaws.com. North Carolina Clean Energy Technology Center. March 1, 2015. RetrievedMay 30, 2015.
  124. ^Schelly, Chelsea; et al. (2017)."Examining interconnection and net metering policy for distributed generation in the United States".Renewable Energy Focus.22–23:10–19.doi:10.1016/j.ref.2017.09.002.
  125. ^"Public Utility Regulatory Policies Act of 1978 (PURPA)". U.S. Department of Energy. RetrievedMay 30, 2015.
  126. ^"Database of State Incentives for Renewables & Efficiency". North Carolina Clean Energy Technology Center. RetrievedMay 31, 2015.
  127. ^DOE's SunShot Program Aims to Reach Competitive Solar By 2020. Fast Company, Feb. 4, 2011.
  128. ^"SunShot Initiative About page, Accessed Jan. 20, 2012". .eere.energy.gov. November 16, 2011. RetrievedMarch 30, 2012.
  129. ^"Sunshot Catalyst Challenge Series on Topcoder". Archived fromthe original on June 6, 2017. RetrievedMay 2, 2017.
  130. ^"SunShot $1 per Watt Solar Cost Goal: Mission Accomplished, Years Ahead of Schedule". January 25, 2017. RetrievedJanuary 30, 2017.
  131. ^EERE: Solar Energy Technologies Program Home Page[Archived December 19, 2011, at theWayback Machine
  132. ^abCalifornia Public Utilities Commission,The California Solar InitiativeArchived 2013-03-07 at theWayback Machine
  133. ^Database of State Incentives for Renewables and Efficiency,Financial Incentives in the USAArchived 2008-01-09 at theWayback Machine
  134. ^"Los Angeles County Sanitation Districts | Home".www.lacsd.org.
  135. ^"Across America, clean energy plants are being banned faster than they're being built".USA TODAY. RetrievedFebruary 7, 2024.
  136. ^American Council on Renewable Energy,Member BenefitsArchived 2010-12-04 at theWayback Machine
  137. ^American Council On Renewable Energy, (2007).The Outlook On Renewable Energy In AmericaArchived 2007-05-13 at theWayback Machine
  138. ^635 GW Possible with U.S. Political ShiftRenewable Energy Access, 2 May 2007.
  139. ^Walker, Gordon; Devine-Wright, Patrick; Hunter, Sue; High, Helen; Evans, Bob (June 2010)."Trust and community: Exploring the meanings, contexts and dynamics of community renewable energy".Energy Policy.38 (6):2655–2663.Bibcode:2010EnPol..38.2655W.doi:10.1016/j.enpol.2009.05.055.
  140. ^abcRogers, J.C.; Simmons, E.A.; Convery, I.; Weatherall, A. (November 2008)."Public perceptions of opportunities for community-based renewable energy projects".Energy Policy.36 (11):4217–4226.Bibcode:2008EnPol..36.4217R.doi:10.1016/j.enpol.2008.07.028.S2CID 154810770.
  141. ^Wahlund, Madeleine; Palm, Jenny (May 2022)."The role of energy democracy and energy citizenship for participatory energy transitions: A comprehensive review".Energy Research & Social Science.87 102482.Bibcode:2022ERSS...8702482W.doi:10.1016/j.erss.2021.102482.S2CID 245728415.
  142. ^Creamer, Emily; Eadson, Will; van Veelen, Bregje; Pinker, Annabel; Tingey, Margaret; Braunholtz-Speight, Tim; Markantoni, Marianna; Foden, Mike; Lacey-Barnacle, Max (June 28, 2018)."Community energy: Entanglements of community, state, and private sector".Geography Compass.12 (7) e12378.Bibcode:2018GComp..12E2378C.doi:10.1111/gec3.12378.hdl:20.500.11820/1e406e01-2571-4e15-a68e-6b2acd50a8d2.S2CID 149604257.
  143. ^Funkhouser, Erik; Blackburn, Griselda; Magee, Clare; Rai, Varun (November 2015). "Business model innovations for deploying distributed generation: The emerging landscape of community solar in the U.S.".Energy Research & Social Science.10:90–101.Bibcode:2015ERSS...10...90F.doi:10.1016/j.erss.2015.07.004.ISSN 2214-6296.
  144. ^"None". Archived fromthe original on February 24, 2013.
  145. ^"U.S. Renewable Energy Technical Potentials"(PDF). National Renewable Energy Laboratory. RetrievedDecember 1, 2016.
  146. ^"NREL Study Shows Renewable Energy Potential in Every State".www.nrel.gov. Archived fromthe original on August 1, 2012.
  147. ^"Electricity Consumption". Energy Information Agency. RetrievedDecember 28, 2016.
  148. ^"Total Energy Consumption 2010". Energy Information Agency. RetrievedDecember 28, 2016.

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