Not all is rosy for new coal-fired plants. Last year, coal-fired generation fell from 48.2 percent to 44.6 percent of total U.S. electricity generation,[iii] as low natural gas prices raised the gas share, and higher water levels and wind turbine capacity increased the renewable share. While some states remain favorable to new coal-fired generation, others are tied up in legal opposition and regulatory hold-ups for permits. Nevertheless, many folks agree that the present difficulty of putting cap-and-trade legislation through the Senate is having positive effects on new coal builds.[iv]

Past Announcements vs. Operational Units

NETL has tracked announcements versus actual construction of units over time and has noted that escalating costs and uncertainty about whether climate change legislation would pass have caused fewer coal-fired power plants to be constructed than were originally announced. NETL’s 2002 report, for example, noted that over 36,000 megawatts of coal-fired capacity were to be built by 2007, while only 12 percent of that amount (4,500 megawatts) was actually constructed during that period. The figure below shows the announcements of coal-fired plants versus actual plant construction over the past decade.

Current Status

According to NETL, in 2009, 8 coal-fired plants, listed in the figure below, came on-line in the following states: Iowa, Kentucky, Colorado, Illinois, Nebraska, Texas, and Arizona. The laboratory categorizes future plant additions as announced, permitted, near construction, or under construction. A plant in the announced phase is in the early stages of development and may be filing for permits. A plant in the permitted phase either has two or more permits approved or its fuel or power contracts have been negotiated. A plant near construction has obtained approval and received the majority of its permits, has begun site preparation, and is contracting for vendors and Engineering, Procurement and Construction contractors.

As of January 2010, NETL reported that 46 coal-fired plants were announced (26,233 megawatts), 8 were permitted (3,280 megawatts), 1 was near construction (320 megawatts), and 22 coal-fired plants were under construction (13,755 megawatts)for a total of 43,588 megawatts in the pipeline. (See table below.) While plants under and near construction are likely to come on line, NETL warns that regulatory uncertainty and industry cost increases are impacting development decisions for all projects.

The EIA is a little less optimistic. In its Annual Energy Outlook 2010, it is forecasting that between 2008 and 2035, an additional 26,400 megawatts of coal-fired capacity will come on-line; of that, 15,600 megawatts are in the pipeline.[v] EIA’s assessment reflects their beliefs about regulatory and financial uncertainty in the cost of capital for coal-fired units, and assumes a 3-percentage point increase in the cost of capital when evaluating investments in greenhouse gas intensive technologies without carbon capture and sequestration (CCS) technology. The 3-percentage point adjustment is similar to a $15 per ton carbon dioxide emissions fee when investing in a new coal plant without CCS technology. The adjustment accounts for the possibility that the plants may need to purchase allowances or invest in other greenhouse gas emission-reducing projects that offset their emissions in the future.[vi]

The International Energy Agency is a little more optimistic than the EIA in its World Energy Outlook 2009, forecasting an additional 35,000 megawatts of coal-fired capacity above 2007 levels by 2030.[vii]

Regulatory Climate

In some states, coal is essentially banned or is having a very difficult time getting permitted. In California, for example, there is a de facto ban on new coal-fired plants resulting from a performance standard that requires all new base-load generation to produce no more greenhouse gas emissions than a new natural gas combined cycle plant.[viii] Washington State also has a de facto ban on new coal-fired plants, requiring a 20 percent offset in carbon dioxide emissions from new fossil fuel plants.[ix]

In Kansas, in 2008 and 2009, then-governor Kathleen Sebelius vetoed bills by the state legislature that would have allowed Sunflower Electric Power to build two 700-megawatt coal-fired power plants that had been originally rejected by a state environmental official because of its output of carbon dioxide emissions. Once Kansas Governor Sebelius became a cabinet secretary in the Obama Administration, the atmosphere turned more favorable. The new Kansas governor, Mark Parkinson, is allowing one new coal-fired plant to be built.[x]

In Georgia, a state where coal is the primary fuel for electric generation, Longleaf, the first coal-fired power plant to be built in more than 20 years, is tied up in litigation. In late June 2008, Fulton County Superior Court Judge Thelma Wyatt Cummings Moore overturned the decision by state regulators to issue the plant an air permit, saying state environmental officials failed to take the plant’s carbon dioxide emissions into consideration. In her decision, Moore said the plant would annually emit large amounts of air pollutants, including nine million tons of carbon dioxide (even though carbon dioxide was not defined as a regulated pollutant at the time). In November 2008, the plant owners appealed the decision to the State Court of Appeals. In July 2009, the Court of Appeals overturned the decision, but left the plant’s permit invalid. In September 2009, the Georgia Supreme Court ruled that they would not hear an appeal by the Sierra Club against the previous ruling. While the Sierra Club appealed to the court to reconsider, the Georgia Supreme Court held to their prior ruling. In April 2010, the state Environmental Protection Division issued two amendments to the permit, but failed to allow enough time for public comment. The plant is on hold while the state determines when they will provide the documents for comment.[xi]

In New Mexico, the Desert Rock coal-fired power plant, whose permit was originally approved by the Environmental Protection Agency (EPA) under the Bush Administration. The permit, however, was withdrawn by the same EPA during the Obama Administration, citing inadequate analysis of environmental issues and a failure to use the appropriate technology, coal gasification combined cycle. The plant was to use supercritical coal technology and meet standards defined by the International Energy Agency for carbon capture and storage, allowing it to be retrofitted for future deployment of the coal-gasification technology when it becomes commercially available. The 1,500 megawatt plant was to serve parts of Arizona, New Mexico, and Utah, using Navajo Nation coal resources. According to the President of the Navajo Nation, the EPA is holding it accountable to higher standards than other parts of the United States. In April 2010, the power plant owner indicated that the project was not dead, but it is no longer clear what fuel the owner will use—fossil or renewable.[xii]

China’s Reliance on Coal

It is important to remember the big picture. Carbon dioxide emissions are global emissions, in that reducing them in the United States does not guarantee an absolute reduction. For example, unlike the United States, China has no qualms of dramatically increasing its coal-fired electricity generation and carbon dioxide emissions.

China currently gets 70 percent of its energy and 80 percent of its electricity from coal. China is the largest producer and consumer of coal in the world, and many of China’s large coal reserves have yet to be developed. The country currently ranks third in coal reserves, after the United States and Russia, with 13 percent of the world total.[xiii]

The EIA is projecting that those percentages will change very little in the future, despite the so-called lead that the U.S. administration says China has in green energy. By 2035, EIA expects China to get 62 percent of its energy and 74 percent of its electricity from coal. The statistical agency expects China to add 737 gigawatts of coal-fired capacity to its existing 496 gigawatts, an increase of about 150 percent. China’s coal-fired capacity in 2007 exceeded that of the United States by over 180 gigawatts and the additions that China is expected to make to coal-fired capacity by 2035 will be more than double the current coal-fired capacity in the United States. In fact, the forecasted coal-fired capacity of China in 2035 (1233 gigawatts) exceeds the total capacity of all types forecasted for the entire United States in that year (1216 gigawatts).[xiv]

The International Energy Agency (IEA) is also in agreement that China will be building a massive number of coal plants in the future. Their forecast has an additional 773,000 megawatts of coal-fired capacity being constructed by 2030 from 2007 levels, surpassing the total generating capacity in the United States in 2030. They also expect China’s electricity sector to be mainly coal fired, with coal producing 75 percent of the country’s electricity in 2030.[xv]

NETL also agrees with EIA’s and IEA’s outlook regarding construction of coal-fired capacity as the figure below indicates. During the past decade, China has been building 10 to 70 gigawatts of coal-fired capacity each year, and it has about 185 gigawatts planned.

The chart below shows the dramatic difference between the Chinese and American build-rates for coal-fired generating capacity. The blue and green bars show China’s new coal-fired capacity, built, under construction, and planned, and they are compared to the red and yellow bars for the U.S.’s coal fired capacity that are operational and under construction. The announced U.S. plants have been so tentative in the past that they are not included on the chart.

Conclusion

While the current outlook is somewhat brighter for coal-fired power plants here in the United States, their ability to compete with natural gas and renewable technologies is hampered by uncertainty over legislation and regulation, along with legal delays. Congress has had various proposals for a cap and trade bill to limit greenhouse gas emissions, but to date only the House of Representatives has passed their version of the bill. In the mean time, the EPA is planning to limit those emissions through regulation. Coal’s fate in this country is still uncertain, but China realizes that coal is its answer to economic growth, providing the energy it needs to improve the living conditions of its population.

[ii] Energy Information Administration, Electric Power Monthly, http://tonto.eia.doe.gov/ftproot/electricity/epm/02260904.pdf, http://tonto.eia.doe.gov/ftproot/electricity/epm/02261003.pdf, http://tonto.eia.doe.gov/ftproot/electricity/epm/02261008.pdf

[iii] Energy Information Administration, Monthly Energy Review, http://www.eia.gov/emeu/mer/pdf/pages/sec7_5.pdf

[iv] Associated Press, America’s New Coal Boom, August 17, 2010, http://www.google.com/hostednews/ap/article/ALeqM5iCjlywOJyCu1MSGH7FUqj7jD1c1QD9HL5RUO2

[v] Energy Information Administration (EIA), Annual Energy Outlook 2010, Table 9, http://www.eia.doe.gov/oiaf/aeo/aeoref_tab.html

[vi] Energy Information Administration, Annual Energy Outlook 2010, http://www.eia.doe.gov/oiaf/aeo/electricity_generation.html

[vii] Organization for Economic Cooperation and Development, International Energy Agency, World Energy Outlook 2009.

[viii] Institute for Energy Research, Energy Regulation in the States: A Wake-up Call, http://www.instituteforenergyresearch.org/states/california/

[ix] Institute for Energy Research, Energy Regulation in the States: A Wake-up Call, http://www.instituteforenergyresearch.org/states/washington/

[x] The Washington Post, Gristmill: What’s not the matter with Kansas, July 10, 2008, http://www.washingtonpost.com/wp-yn/content/article/2008/07/15/AR2008071500930.html, and http://www2.ljworld.com/news/kansas/energy/sunflower/

[xi] Wall Street Journal, February 4, 2008, http://blogs.wsj.com/environmentalcapital/2008/02/04/wall-street-tells-big-coal-not-so-fast/?mod=WSJBlog , April 2, 2008, http://blogs.wsj.com/environmentalcapital/2008/04/02/bank-of-america-more-heat-on-coal/ , August, 13, 2008, http://blogs.wsj.com/environmentalcapital/2008/08/13/burning-cash-coal-friendly-banks-under-fire/, and http://www.sourcewatch.org/index.php?title=Longleaf

[xii] The New Mexico Independent, EPA plugs the plug on Desert Rock coal-fired power plant, April 28, 2009, http://newmexicoindependent.com/26011/epa-pulls-the-plug-on-desert-rock-coal-fired-plant , Greenwire, COAL: Extension granted for appeals of N.M. power-plant permit , August 22, 2008, http://www.eenews.net/Greenwire/2008/08/22/8, and The Navajo Times, Desert Rock not dead, April 15, 2010, http://www.navajotimes.com/news/2010/0410/040810desertrock.php

[xiii] Energy Information Administration, http://www.eia.doe.gov/emeu/cabs/China/Coal.html

[xiv] Energy Information Administration, International Energy Outlook 2010, http://www.eia.doe.gov/oiaf/ieo/index.html

[xv] Organization for Economic Cooperation and Development, International Energy Agency, World Energy Outlook 2009.

Europe’s feed-in tariffs have led to higher electricity prices without having positive impacts on emissions reductions, employment, energy security, or technological innovation. In Spain, the feed-in tariff has helped create a rate deficit so great that it imperils the sustainability of Spain’s electricity system. Despite these real-world experiences, some believe we should implement the same policies in the U.S. Recently ClimateWire carried the following item, with opening language provided:

RENEWABLES: UC Berkeley’s Kammen recommends upgraded feed-in tariff (07/09/2010)

A new paper from a leading climate policy expert makes the case that California should have a feed-in tariff like the ones in Germany and Spain that have been credited with creating unprecedented demand for solar power.

Dan Kammen is a professor of energy, policy and nuclear engineering at the University of California, Berkeley, and was an adviser to President Obama on energy policy during the 2008 campaign. He is backing a state-set price for renewable energy fed back to the electricity grid. The price guarantee, known as a feed-in tariff, would promote the development of wholesale distributed generation—mainly solar, but also some wind, biogas, biomass and geothermal power.

Here is what we know about how those schemes actually worked in those countries.

First, Germany, cited by President Obama as a green-economy model— ten times we think—according to the old-line, state-supported think tank RWI-Essen. From the Abstract of “Economic Impacts from the Promotion of Renewable Energy Technologies: The German Experience”, RWI-Essen, November 2009 (emphases added):

We argue that German renewable energy policy, and in particular the adopted feed-in tariff scheme, has failed to harness the market incentives needed to ensure a viable and cost-effective introduction of renewable energies into the country’s energy portfolio. To the contrary, the government’s support mechanisms have in many respects subverted these incentives, resulting in massive expenditures that show little long-term promise for stimulating the economy, protecting the environment, or increasing energy security.

From the body of the report:

While utilities are legally obliged to accept and remunerate the feed-in of green electricity, it is ultimately the industrial and private consumers who have to bear the cost through increased electricity prices. .. Overall, the level of feed-in tariffs increased nearly six-fold between 2001 and 2008….

This high support for solar electricity is necessary for establishing a market foothold, with the still low technical efficiencies of PV modules and the unfavorable geographical location of Germany being among a multitude of reasons for solar electricity’s grave lack of competitiveness… Even on-shore wind, widely regarded as a mature technology, requires feed-in tariffs that exceed the per kWh cost of conventional electricity by up to 300% to remain competitive.

[T]he system of feed-in tariffs stifles competition among renewable energy producers and creates perverse incentives to lock into existing technologies…

[A]lthough Germany’s promotion of renewable energies is commonly portrayed in the media as setting a “shining example in providing a harvest for the world” (The Guardian 2007), we would instead regard the country’s experience as a cautionary tale of massively expensive environmental and energy policy that is devoid of economic and environmental benefits. . . .

[T]he commonly advanced argument that renewables confer a double dividend or ‘win-win solution’ in the form of environmental stewardship and economic prosperity is disingenuous. In this article, we argue that Germany’s principal mechanism of supporting renewable technologies through feed-in tariffs, in fact, imposes high costs without any of the alleged positive impacts on emissions reductions, employment, energy security, or technological innovation….

Second, numerous empirical studies have consistently shown the net employment balance to be zero or even negative in the long run, a consequence of the high opportunity cost of supporting renewable energy technologies. Indeed, it is most likely that whatever jobs are created by renewable energy promotion would vanish as soon as government support is terminated. . . .

How about Spain? According to a 2009 study from King Juan Carlos University in Madrid, “Study of the effects on employment of public aid to renewable energy sources”, subsidizing renewable energy was a complete disaster. In fact, the study said that for every new job depending on energy price supports, at least 2.2 jobs in other industries will disappear. Once again a key contributor was the feed-in tariff scheme:

Optimistically treating European Commission partially funded data, we find that for every renewable energy job that the State manages to finance, Spain’s experience cited by President Obama as a model reveals with high confidence, by two different methods, that the U.S. should expect a loss of at least 2.2 jobs on average, or about 9 jobs lost for every 4 created, to which we have to add those jobs that non-subsidized investments with the same resources would have created.

Therefore, while it is not possible to directly translate Spain’s experience with exactitude to claim that the U.S. would lose at least 6.6 million to 11 million jobs, as a direct consequence were it to actually create 3 to 5 million “green jobs” as promised (in addition to the jobs lost due to the opportunity cost of private capital employed in renewable energy), the study clearly reveals the tendency that the U.S. should expect such an outcome.

At minimum, therefore, the study’s evaluation of the Spanish model cited as one for the U.S. to replicate in quick pursuit of “green jobs” serves a note of caution, that the reality is far from what has typically been presented, and that such schemes also offer considerable employment…

Here is what the Spanish government said in an April 2009 Royal Decree issued on the heels of this study’s findings:

The rate deficit, manly caused by the feed-in-tariff system to support renewable energies, “is deeply harming the system and puts at risk not only the financial situation of the electric sector companies´ but also sustainability of the system itself. This dis-adjustment turns out to be unsustainable and has grave consequences since it deteriorates the security and financial capacity of the investments necessary for providing electricity at the levels of quality and security that the Spanish society demands.”

So, by all means, let’s have an open and honest debate about how President Obama’s models for a centrally planned “green” economy have worked out, particularly in Spain and Germany and specifically their feed-in tariff schemes. Given the reality, however, you shouldn’t count on that occurring.

Wind is not a new technology. It was one of our principal sources of energy, along with wood and water, prior to the carbon era. But the use of renewables in the pre-carbon age was very different from the current use of renewables. Today, people rely on energy being available 24 hours a day, 7 days a week, 365 days a year, regardless of whether the sun shines, the wind blows, or there are high or low water levels.  We now have over 1,000 gigawatts of generating plants[1], and a large and elaborate electrical grid that requires great coordination among system operators to avoid disruptions.

Also, in the pre-carbon energy era, when renewables were the sole source of energy, there were no coal-fired or natural-gas fired power plants to provide back-up power. Studies have found that the efficiency of those carbon-based plants is affected by incorporating wind energy into the system. When a plant’s efficiency is reduced, its fuel consumption and emissions increase, causing unintended consequences that wind proponents do not disclose. Requiring even larger amounts of renewable energy through renewable portfolio standards will only exacerbate this problem.

Background

Our various electricity generating technologies were designed and constructed to meet electricity demand based on their best operating characteristics for meeting portions of the electricity load duration curve. The load duration curve illustrates periods of constant demand that are served by base-load power versus periods of intermediate and peak demand. Owing to their high capital cost, low fuel cost, and high capacity factors, technologies such as coal and nuclear were designed to operate continuously to meet the base-load demand component. Owing to their lower capital costs but higher fuel costs, natural gas technologies, including combined-cycle and turbine plants, were designed to meet intermediate and peak electrical load.

Wind is an intermittent technology since it can generate power only when the wind blows. Its low operating cost (with no fuel component) and the mandates of state Renewable Portfolio Standards (RPS) make it practically a “must take” technology for system operators. RPSs require that a certain amount of electricity generation be produced by renewable fuels. The renewable target mandates tend to start out low but increase over time, with those of most RPS states reaching 15 to 30 percent by 2020 or 2025.[2] Wind tends to be the primary technology for meeting RPS targets, since it is lower in capital cost than solar, thermal, and photovoltaic technologies, the other politically acceptable “green” technologies.

Part of the rationale for introducing RPSs is that the substitution of “green” technologies for carbon technologies is supposed to reduce pollution emissions as well as carbon dioxide emissions. However, studies have shown that this may not be the case. As conventional generation (coal or natural gas) is reduced to make room for wind generation and is then increased as wind generation subsides, its heat rate rises. The heat rate is a measure of a generating station’s thermal efficiency commonly stated in units of Btu per kilowatt-hour. This reduction in efficiency  increases its fuel consumption and emissions. When sudden increases or decreases occur in generation output, it is referred to as “cycling”.

The Bentek Study

Bentek did a study of the results of integrating wind into the generation mix of the Public Service Company of Colorado (PSCO), using data from the company’s financial reports, the Energy Information Administration, the Federal Energy Regulatory Commission, the Environmental Protection Agency, and the National Renewable Energy Laboratory.[3] PSCO is a largely coal-fired utility with 3,764 megawatts of coal-fired generators, 3,236 megawatts of gas-fired combined-cycle and gas turbine capacity, 405 megawatts of hydro and pumped storage capacity, and 1,064 megawatts of wind generators. Colorado has an RPS that required 3 percent of the electricity generated by investor-owned utilities come from qualifying renewable technologies by 2007, and 30 percent by 2020.[4]

Colorado’s energy demand is highest during the day, peaking in late afternoon or early evening. Wind generation, however, is greatest between the hours of 9 pm and 5 am; it cannot be counted on to provide power when most needed, and so is used when available to meet the RPS. Most of the time that wind generation is available, it backs out (or replaces) natural gas. However, there are times when coal generation, which provides over 50 percent of PSCO’s base-load generation, is backed out to make room for the wind generation. When this happens, coal generation is cycled, causing its heat rate to increase and resulting in more fuel consumption and emissions. In PSCO, coal cycling predominates because of the low amount of gas generation in the system since most of its gas-fired generation is from turbines and because wind is strongest at night when coal use is even more pronounced.

In the Denver non-attainment area, PSCO has 4 coal-fired plants: Arapahoe, Valmont, Pawnee, and Cherokee. Between 2006 and 2009, these coal-fired plants have experienced higher emission rates ranging from 17 to 172 percent higher for sulfur dioxide, 0 to 9 percent higher for nitrous oxide, and 0 to 9 percent higher for carbon dioxide. In 2008, Cherokee even switched to a lower sulfur coal, but still ended up with sulfur dioxide emissions higher by 18 percent. And, between 2006 and 2009, these plants reduced their generation by over 37 percent, exacerbating further the increase in emissions.

Because the PSCO data are limited, Bentek checked their results against data from the Energy Reliability Council of Texas, whose utilities are required to report generation levels by fuel every 15 minutes. Texas has the most wind capacity in the country—over 9,500 megawatts.[5] Texas also has an RPS that was instituted during George W. Bush’s governorship and that pushed Texas ahead of California in wind capacity during 2006. The Texas renewable portfolio standard requires that utilities have 5,880 megawatts of renewable capacity by 2015, including a target of 500 megawatts of renewable-energy capacity from resources other than wind. The legislation also set a target of reaching 10,000 megawatts of renewable energy capacity by 2025, although it will be exceeded much earlier.[6] However, even in Texas, which has a large natural gas–fired capacity base, with over 40 percent of its generation being natural gas-fired,[7] coal-fired generation is cycled as is shown in the graph below.

Another benefit that wind power generators get is that their forecast power generation entails no penalty if it is not available. Other generators must provide their own back-up power if their generation is suddenly unavailable. But the owners of wind generators believe that they can’t be held accountable for whether the wind blows and thus for inaccuracies in their forecasting capability. For example, on February 26, 2008, a cold front moved through West Texas and rendered wind’s output 1,000 megawatts less than promised, and that unexpectedly had to be made up by other generating technologies.[8] Only careful and extensive coordination, such as was carried out in West Texas on that cold February day, can divert brown outs and black outs from occurring.

The Netherlands Experience[9]

Two researchers, C. le Pair and K. de Groot, found that the Netherlands Government was overestimating the amount of carbon dioxide reductions associated with wind production. The government was using incorrect data because it did not correct for the reduction in efficiency of the conventional power plants once wind was introduced into the system. Using data provided by CBS, the Dutch Institute for Statistics, the researchers made an estimate of the “turning point” where the efficiency reduction of conventional power plants balances out the fuel savings from wind energy. Using data for 2007, when wind power was at 3 percent, they found the turning point to be at an efficiency reduction of 2 percent based on all the power stations serving the Netherlands. That is, when the efficiency of the back-up plants was reduced by over 2 percent due to cycling caused by the integration of wind energy into the system, fuel use and emissions of the back-up plants increased.

Heat Rate Simulations

An engineer, Kent Hawkins, evaluated several heat rate simulations to represent cycling of the plants when wind is introduced into the system.[10] One set of simulations evaluates wind energy replacing coal power with different technologies serving as the back-up power to wind, in order to evaluate their effect on fuel use and carbon dioxide emissions. He found that because of cycling, carbon dioxide emissions increase with the incorporation of wind energy if coal is the sole back-up power for wind. If coal and gas turbines or gas combined-cycle and gas turbines are used to back up the wind power, carbon dioxide emissions are reduced mainly due to the lower carbon dioxide emissions produced from natural gas generators as compared to coal generators. This is best seen by examining the last bar in the chart below where the lowest carbon dioxide emissions result when natural gas combined-cycle plants are solely used to replace coal.

An interesting consequence of this analysis is that certain areas of the world where wind is integrated into a system that is primarily coal-based may result in an increase in total carbon dioxide emissions from using wind in their generating sector. That is, in these circumstances, wind would not be providing an offset in carbon dioxide emissions, but would actually be providing an increase in those emissions. China, for example, relies on coal for 80 percent of its generation and natural gas for only 2 percent. [11] China also added the most wind power of any country in 2009, 13 gigawatts,[12] ranking third in the world in total wind capacity, with the United States first and Germany second.[13] Since China’s wind would primarily be backed up by power from coal-fired generating units, it is no wonder that China’s carbon dioxide emissions increased by 9 percent in 2009.[14]

Conclusion

As more wind units are built and data become available regarding their integration into conventional energy systems, we will learn more about the effects of wind units on the operation of conventional plants. A few studies have been done showing that the effect of wind integration on both fuel consumption and emission reductions can in fact be negative. Further evaluation of our current wind units and their effects on fuel consumption and emissions should be done before increasing the penetration of renewable energy to the 20 and 30 percent levels currently mandated by some state renewable portfolio standards, and before a national renewable portfolio standard is considered for enactment.

[2] Institute for Energy Research, Energy Regulation of the States: A Wake-up Call, www.instituteforenergyresearch.org/states/

[3] Bentek Energy LLC, How Less Became More: Wind, Power and Unintended Consequences in the Colorado Energy Market, http://www.bentekenergy.com/WindCoalandGasStudy.aspx

[4] Institute for Energy Research, Energy Regulation of the States: A Wake-up Call, http://www.instituteforenergyresearch.org/states/colorado/

[5] American Wind Energy Association, http://www.awea.org/projects/projects.aspx?s=Texas

[6] Institute for Energy Research, Energy Regulation of the States: A Wake-up Call, http://www.instituteforenergyresearch.org/states/texas/

[7] Energy Information Administration, Electric Power Monthly, March 2010, http://tonto.eia.doe.gov/ftproot/electricity/epm/02261003.pdf

[8] The Wall Street Journal, Natural Gas Tilts at Windmills in Power Feud, March 2, 2010, http://online.wsj.com/article/SB10001424052748704188104575083982637451248.html?K

[9] The impact of wind generated electricity on fossil fuel consumption, C. le Pair and K. de Groot, http://www.clepair.net/windefficiency.html

[10] Wind Integration: Incremental Emissions from Back-Up Generation Cycling (Part V: Calculator Update), Kent Hawkins, February 12, 2010, http://www.masterresource.org/2010/02/wind-integration-incremental-emissions-from-back-up-generation-cycling-part-v-calculator-update/#more-7271

[11] Energy Information Administration, International Energy Outlook 2010, Tables H10, H12, and H13, http://www.eia.doe.gov/oiaf/ieo/pdf/ieoecg.pdf

[12] Global Wind Energy Council, Global wind power boom continues amid economic woes, March 2, 2010, http://www.gwec.net/index.php?id=30&no_cache=1&tx_ttnews[tt_news]=247&tx_ttnews[backPid]=4&cHash=1196e940a0

[13] Global Wind Energy Council, http://www.gwec.net/index.php?id=13, and Global Wind Energy Council, Global wind power boom continues amid economic woes, March 2, 2010, http://www.gwec.net/index.php?id=30&no_cache=1&tx_ttnews[tt_news]=247&tx_ttnews[backPid]=4&cHash=1196e940a0

[14] Reuters, China top carbon emitter for second year running, June 9, 2010, http://alertnet.org/thenews/newsdesk/LDE6580Y1.htm

China Setting Records: China Oil Demand, Coal Production and Vehicle Sales Up in 2010

During January, February, and March of this year, China was again setting records with huge year-over-year increases in oil demand.  In February, China’s oil demand rose 19.4 percent over a year earlier, the second fastest rise on record. According to Reuters, China is the world’s second largest oil user (second to the United States) and consumed 8.65 million barrels of oil per day in February, an increase of 9.4 percent or 604,000 barrels per day over January’s consumption.[i] Oil imports were up 13.8 percent in March over February, reaching 4.95 million barrels per day, according to preliminary data from China’s General Administration of Customs.[ii] In part, these large oil increases are fueling China’s passenger car fleet. New passenger car sales rose 55 percent in February from a year earlier, following a 116 percent increase in January, most likely aided by the extension of government incentives to boost purchases of smaller vehicles and spur rural demand for cars.  [iii]

China has spent nearly $200 billion on oil deals during the past few years, joining with more than 19 countries —including Russia, Turkmenistan, Kuwait, Yemen, Libya, Angola, Venezuela and Brazil— and paying for exploration, production, infrastructure construction, as well as “loans for energy” deals.[iv] Recently, China’s Sinopec International Petroleum Exploration and Production Company agreed to buy, for $4.65 billion, the 9 percent interest that ConocoPhillips holds in Syncrude,[v] a Canadian business involved in the production of oil sands (an asphalt-like heavy oil).[vi] Approval from the Canadian and Chinese governments is expected in the third quarter of this year.

Along with China’s Canadian oil pursuits, long thought to be a safe and secure supply for U.S. oil demand, the state-owned China Development Bank has promised to lend $20 billion to Venezuela to build new power plants, highways, and other projects, which will be repaid with Venezuelan crude oil. Venezuela’s President Hugo Chavez has long complained about the United States’ standing as the largest buyer of Venezuelan oil, and so he is more than pleased to offer his country’s oil to China instead.[vii] Both the Canadian crude and the Venezuelan crude are heavy oils, and the United States owns most of the refineries that can process heavy crude oils. So, to prepare itself for future heavy oil supplies, China has approved plans for construction of such a refinery. As the United States loses neighboring oil supplies to China, one wonders how the U.S. will meet future oil demand, especially as the Obama Administration has been slow to open new offshore areas to oil development (claiming further study is needed) but speedy at advocating climate legislation and a low-carbon fuel standard, both policies aimed at reducing the demand for fossil fuels without providing comparable energy substitutes.

Oil resources are not the only target on China’s energy wish-list. It also plans to increase its consumption of natural gas; last year, its liquefied natural gas imports rose by two-thirds, to 5.53 million tons or 7.7 billion cubic meters.[viii] China also continues to consume large quantities of its primary fuel, coal, in its industrial and electric generation sectors. According to China’s National Bureau of Statistics, the country’s coal output grew more than 28 percent, to well over 751 million tons in the first quarter of 2010. A report by China’s National Coal Association estimates China’s total coal production capacity exceeds 3.6 billion tons.[ix] This is in sharp contrast to coal mining in the United States, where the Environmental Protection Agency (EPA) has issued a new policy aimed at curbing mountain top removal mining[x] and is scrutinizing surface coal mine permits.  EPA is revoking or blocking Clean Water Act permits for mountain top mining citing irreversible damage to the environment. Some of the permits were awarded years ago.[xi]

Seventy percent of China’s energy comes from coal,[xii] the most carbon-intensive fossil fuel. China already consumes more than twice the coal as  the United States, and by 2030, China is expected to consume 3.7 times as much coal.[xiii] As a result, China emits more carbon dioxide than any other country in the world including the United States, and by 2030, it is expected to release 82 percent more carbon dioxide emissions than the United States.[xiv]

China’s Race to Electrification; U.S. Stagnation

Between 2004 and 2008, China added 346 gigawatts of generating capacity, of which 272 gigawatts were conventional thermal power (mostly coal) and 66 gigawatts were hydroelectric power. This compares to a total installed US hydroelectric capacity of 77 gigawatts.  China is estimated to have added an additional 85 gigawatts in 2009, reaching a total of 874 gigawatts,[xv] about 15 percent less than the total capacity in the United States. Of the 85 gigawatts added in 2009, 51 gigawatts were conventional thermal, again mostly coal, 25 gigawatts were hydroelectric, and 9 gigawatts were wind power.[xvi] Many of China’s wind turbines were funded by the U.N.’s Clean Development Mechanism,   under which wealthy countries fund projects in developing countries and receive carbon credits so long as those projects would not have been accomplished otherwise.[xvii]

In contrast, the United States added only 47 gigawatts of generating capacity from 2004 to 2008 (14 percent of the capacity China added), of which 26 gigawatts were natural gas-fired units and 18 gigawatts were wind turbines. New coal-fired capacity additions are practically non-existent in the United States primarily owing to objections regarding emissions of carbon dioxide. Coal-fired projects in the United States have either been cancelled or delayed because of permitting problems, reviews and re-reviews by EPA and resulting financing problems. While the United States has more coal than any other country in the world, with over 200 years of reserves at current usage rates, coal’s share of new U.S. generating markets has been replaced by natural gas and renewable units that are  more politically in vogue.

China’s Economic Growth and Export Market
China’s economy, the second-largest in the world in terms of purchasing power, is currently about half the size of the U.S. gross domestic product. According to China’s central bank, the country’s economy grew at an annual rate of 10.7 percent in the fourth quarter of 2009,[xviii] a rate almost twice the U.S. rate of 5.6 percent for the same time period.[xix] And in the first quarter of 2010, China’s economy grew by 11.9 percent. Forecasters predict that China’s economy will exceed that of the United States in 10 to 15 years.[xx]

China became the world’s largest exporter last year, edging out Germany and the United States. Despite a decline in total world trade, China’s exports fell less than those of other big powers. A report by the World Trade Organization calculates that the total value of merchandise exports fell by 23 percent in 2009. Among the top ten exporters, Japan’s shipments were the worst affected, falling by 26 percent. Because China’s exports fell by only 16 percent, it is now the single largest exporter. The World Trade Organization expects trade to rebound by nearly 10 percent this year.[xxi]

Lessons to Be Learned

Many environmentalists and politicians seem to believe that China is winning the green energy race, but nothing could be further from reality.[xxii] China is in a race for energy—all forms of energy—to fuel its growing economy. The size and scope of its investments in conventional forms of energy dwarf their commitment to “green energy.” It is providing loans around the world to invest in future oil projects, and it cares not that the oil is less than the lightest and sweetest. Canadian oil sands and Venezuelan heavy crude are perfectly fine. China is building a coal-fired generating plant each and every week on average, and increasing its coal mining capacity to fuel them. This belies any stated concerns about increasing their carbon dioxide emissions, already the highest of any country in the world. China is building wind turbines too, but if wealthy countries are willing to pay—why not? It matters not at all that the transmission capacity is not yet there to operate almost a third of these wind turbines. And China’s large-scale hydroelectric projects are engineering feats par excellence, built regardless of environmental concerns.

China is ensuring energy supplies will be available to fuel its growing economy. The United States should take note.

[ii] Reuters, Oil falls as demand, inventories weigh, April 12, 2010, http://www.reuters.com/article/idUSTRE6142V820100412

[iii] Reuters, China oil demand rise second fastest, inventories drag, March 22, 2010, http://in.reuters.com/article/oilRpt/idINTOE62L01Z20100322?sp=true

[iv] Politico, To compete with China, U.S. must tap natural gas, April 13, 2010, http://www.politico.com/news/stories/0410/35689.html#ixzz0kyYru8gb

[v] Reuters, China bags oil sands stake, not finished yet, April 13, 2010, http://www.reuters.com/article/idUSTRE63C17X20100413 and www.conocophillips.com

[vi] Syncrude, http://www.syncrude.ca/users/folder.asp?FolderID=5753

[vii] The Wall Street Journal, China’s $20 Billion Bolsters Chavez, April 18, 2010, http://online.wsj.com/article/SB10001424052748703594404575191671972897694.html

[viii] Reuters, China bags oil sands stake, not finished yet, April 13, 2010, http://www.reuters.com/article/idUSTRE63C17X20100413

[ix] China Daily, China’s coal output up 28.1% in Q1, April 15, 2010, http://www.chinadaily.com.cn/bizchina/2010-04/15/content_9736151.htm

[x] Environmental protection Agency, New Releases, EPA issues comprehensive guidance to protect Appalachian communities from harmful environmental impacts of mountaintop mining, April 1, 2010, http://yosemite.epa.gov/opa/admpress.nsf/d0cf6618525a9efb85257359003fb69d/4145c96189a17239852576f8005867bd!OpenDocument
[xi] Associated Press, Arch Coal sues EPA over veto of W.Va. mine permit, April 2, 2010, http://news.yahoo.com/s/ap/20100402/ap_on_bi_ge/wv_epa_coal_lawsuit
[xii] Energy Information Administration, China, http://www.eia.doe.gov/emeu/cabs/China/Background.html

[xiii] Energy Information Administration, International Energy Outlook 2009, http://www.eia.doe.gov/oiaf/ieo/index.html

[xiv] Energy Information Administration, International Energy Outlook 2009, http://www.eia.doe.gov/oiaf/ieo/index.html

[xv] http://en.wikipedia.org/wiki/Energy_policy_of_China

[xvi] China’s power generation goes greener with total capacity up 10%, January 7, 2010, http://news.xinhuanet.com/english/2010-01/07/content_12771880.htm

[xvii] http://www.instituteforenergyresearch.org/2010/03/24/kyotos-clean-development-mechanism-is-it-producing-results-for-whom/

[xviii] Politico, To compete with China, U.S. must tap natural gas, April 13, 2010,  http://www.politico.com/news/stories/0410/35689.html#ixzz0kyYru8gb

[xix] http://bea.gov/newsreleases/national/gdp/gdpnewsrelease.htm

[xx] Energy Information Administration, International Energy Outlook 2009, http://www.eia.doe.gov/oiaf/ieo/index.html

[xxi] China overtakes Germany to become the biggest exporter of all, March 31, 2010, http://www.economist.com/daily/news/displaystory.cfm?story_id=15836406&fsrc=nwl

[xxii] http://www.instituteforenergyresearch.org/2010/03/15/the-u-s-in-the-world-race-for-clean-electric-generating-capacity/

“This regulation will increase the cost of doing business in America, period. And when you increase the cost of doing business, you’re left with several possible outcomes: increased costs to consumers, job losses, companies moving offshore to business friendly countries—companies may even be forced to close up shop all together. None of these outcomes put folks back to work or aid in our economic recovery.

“Today’s announcement is pretty cut and dry, the EPA has put America on notice that in less than one year, they will begin to regulate the way we use energy. This process will place an added financial burden on nearly one million buildings and stationary sources that emit carbon – including power plants, nursing homes, schools and even drycleaners. Those added financial costs will undoubtedly be passed along to the consumer in the form of higher electricity bills, increased prices for goods and services and yes, even the possibility of a new tax on your dry cleaning.

“Make no mistake; this is the administration’s attempt to circumvent the legislative process and the will of the American people.”

#####

FOR IMMEDIATE RELEASE:
March 29, 2010
CONTACT:
Patrick Creighton: 202.621.2947
Laura Henderson: 202.621.2951

China has already made its choice.  China is spending about $9 billion a month on clean energy.  It is also investing $44 billion by 2012 and $88 billion by 2020 in Ultra High Voltage transmission lines.  These lines will allow China to transmit power from huge wind and solar farms far from its cities.  While every country’s transmission needs are different, this is a clear sign of China’s commitment to developing renewable energy.

The United States, meanwhile, has fallen behind.

– U.S. Secretary of Energy, Steven Chu

In an attempt to generate support for implementing a cap on carbon dioxide, Energy Secretary Steven Chu and others paint a very dire picture of the U.S.-vs.-China race for clean energy, implying that China is quickly outstripping us in that race.[i] However, all the facts are not on the table. In both 2008 and 2009, the U.S. added more non-hydroelectric renewable capacity than it added traditional capacity (natural gas, coal, oil, and nuclear).[ii] At the end of 2009, the U.S. ranked first in wind capacity in the world with China’s wind capacity about 30 percent less than the U.S. level. At the end of 2008 (the most recent data available), the U.S. ranked fourth in solar capacity, with only Germany, Spain, and Japan having a larger amount. Where China is outstripping us in domestic construction is in coal-fired, nuclear, and hydroelectric generating technologies. Because of U.S. legal and regulatory red tape, it is much harder to build these energy technologies in the U.S. than in China.

What Does the Capacity Data Show for Wind and Solar Power?

According to the Solar Energy Industries Association, the U.S. ranks fourth in the world in solar capacity with 8,800 megawatts at the end of 2008.[iii] Germany, Spain, and Japan, in that order, had larger amounts of solar power at the end of 2008 than the U.S.[iv] China had just 0.3 megawatts of installed solar PV capacity at the end of 2009[v] or 0.003 percent of the solar capacity of the U.S.

According to the Global Wind Energy Council, the U.S. leads the world in wind generating capacity, with 35.2 gigawatts at the end of 2009; Germany is second with 25.8 gigawatts, and China is third with 25.1 gigawatts.[vi] In 2009, the U.S. installed almost 10 gigawatts of wind capacity, a record,[vii] and China installed 13 gigawatts.[viii]

Why is China Building Wind and Solar Capacity?

China builds wind and solar because ratepayers in other countries are paying them to do so. China has been taking advantage of the Clean Development Mechanism (CDM) under the Kyoto Protocol to obtain funding for its solar and wind power.[ix] Under this program, administered by the United Nations, wealthy countries can contribute funds and get credit for “clean technology” built elsewhere as long as it is additional, that is, as long as that technology would not have been built otherwise. China is the world’s largest beneficiary of the program and has benefited to the point where 30 percent of its wind capacity is not operable because it is not connected to the grid.[x] However, in mid 2009, the U.N. started questioning whether the Chinese CDM program was in fact “additional,” because the U.N. found that China was lowering its subsidies to qualify for the program.[xi] That is, China was reducing its own government’s support in order to get international subsidies.

How Do the U.S. and China Electric Construction Programs Compare?

While China is building non-hydro renewable slightly faster than the United States, overall it is building new electrical generation much, much faster than the United States. The most comparable international database on electric generating capacity is found on the Energy Information Administration (EIA) website.[xii] Comparing the electric generating capacity data by technology type for the two countries, at the end of 2007 (the last year of comparable data), the Chinese had a total of 716 gigawatts of generating capacity, about 280 gigawatts less than the 995 gigawatts of capacity in the U.S.

The U.S. has been building generating capacity at a very slow rate, adding between 8 and 15 gigawatts a year since 2004. The Chinese in contrast, to fuel their bulging economy, have added between 75 and 106 gigawatts a year, from 2004 to 2007. Based on Secretary Chu’s comments, one might think that the additional capacity that China was adding was all non-hydroelectric renewable and nuclear capacity. However, that has not been the case. Between 2004 and 2007, the Chinese have added 226 gigawatts of fossil fuel generating capacity, 40 gigawatts of hydroelectric capacity, 2 gigawatts of nuclear capacity, and only 6 gigawatts of non-hydro renewable capacity.

What are China’s Electric Construction Plans?

Both China’s generating sector and its industrial sector rely heavily on coal, with 79 percent of its electric generation being coal-fired.[xiii] According to the National Energy Technology Laboratory (NETL), from 2004 through 2007, China has been building 30 to 70 gigawatts of coal-fired power a year, and has about 70 gigawatts more under construction. NETL sees China building over 185 gigawatts of coal-fired plants in the future.[xiv] (See figure below.)

According to Australia, China is planning to build 500 coal-fired plants over the next ten years.[xv] That means: every week or so, for the next decade, China will open another large coal-fired power plant.[xvi] Australia has just signed a $60 billion deal with China to build a coal mine in Queensland and a 311-mile rail way for transporting the coal to the coast for export to China’s power plants.[xvii]

While China has been slow in adding nuclear power plants, it currently has 20 nuclear reactors under construction and more starting construction this year.[xviii] Four AP 1000 reactors are under construction at 2 different sites: Haiyang and Sanmen.[xix] These are the same reactors that the U.S. Nuclear Regulatory Commission (NRC) has ruled need additional analysis, testing, or design modifications of the shield building to ensure compliance with NRC requirements before they can be constructed in the U.S.[xx] China expects to achieve a total nuclear capacity of 60 gigawatts by 2020, and 120 to 160 gigawatts by 2030,[xxi] surpassing the total nuclear capacity of the United States.

China has a goal to produce 15 percent of its energy from renewables by 2020.[xxii] To help meet this goal, China is planning to build the world’s largest wind farm in the northwest part of the country. The plan is for 5 gigawatts in 2010, expanding to 20 gigawatts in 2020, at a cost of $1 million per megawatt,[xxiii] or $1,000 per kilowatt, about half the cost of an onshore wind unit in the U.S., according to the Energy Information Administration.[xxiv]

What about the U.S.?

The U.S. has made it difficult to build generating plants in this country, particularly coal-fired and nuclear power plants. According to NETL, only eight coal-fired plants totaling 3,218 megawatts became operational in the U.S. in 2009, the largest increase in coal-fired capacity additions in one year since 1991.[xxv] Prospects of cap-and-trade legislation, reviews and re-reviews by the Environmental Protection Agency, direct action protests, petition drives, renewable portfolio standards in many states, competition from wind power, and lawsuits have slowed the construction of new coal-fired plants.[xxvi] As of late February, activists had derailed 97 of the 151 new plants that were in the pipeline in May 2007. According to the Sierra Club, 126 coal plants have been stopped since 2001.  And, for the first time in more than 6 years, not one new coal plant broke ground in 2009. The graph above compares the coal-plant additions in the U.S. to that of China, showing only a handful of coal plants under construction in the U.S.  With new coal-fired plants extremely limited by the above, some are purporting that the current direction for activists may be to phase out the existing fleet of coal-fired power plants.[xxvii] Because the capital cost of most of our coal-fired plants has been paid, that fleet produces almost 50 percent of our electricity at very little cost. Average production costs for coal-fired generators in 2008 were only 2.75 cents per kilowatt hour, second to our nuclear plants at 1.87 cents per kilowatt hour.[xxviii]

No nuclear plant has started up in the U.S. since 1996,[xxix] and no construction permits have been issued since 1979.[xxx]NRC requirements, financing difficulties, and slow fulfillment of the nuclear provisions of the Energy Policy Act of 2005 have slowed the construction of new nuclear power reactors. However, as part of the 2005 Energy Policy Act, President Obama announced last month that his administration is offering conditional commitments for $8.33 billion in loan guarantees for nuclear power construction and operation. Two new 1,100 megawatt Westinghouse AP1000 nuclear reactors are to be constructed at the Alvin W. Vogtle Electric Generating Plant in Burke, Georgia, supplementing the two reactors already at the site. The two new nuclear generating units are expected to begin commercial operation in 2016 and 2017 at a cost of $14 billion. As part of the conditional loan guarantee deal, the U.S. Nuclear Regulatory Commission must determine if the AP1000 fulfills the regulatory requirements for a construction and operating license.[xxxi] (These are the same units permitted, licensed, and being constructed in China right now.) But, as a recent Wall Street Journal energy conference noted, loan guarantees are “meaningless in the absence of regulatory certainty.” Further, Obama’s budget cutbacks for Yucca Mountain, the proposed nuclear waste repository, are yet another signal that President Obama may not “walk the talk.”[xxxii]

Natural gas and wind power are the technologies that seem best able to surmount the financial, regulatory, and legal hurdles of getting plants permitted and operational. In 2008, the U.S. added over 15,000 megawatts of electric generating capacity, of which 4,556 megawatts was natural gas-fired and 8,136 megawatts was wind power.[xxxiii] However, organized local opposition has halted even some renewable energy projects by using “not in my back yard” (NIMBY) issues, changing zoning laws, opposing permits, filing lawsuits, and bleeding projects of their financing.[xxxiv]

The Energy information Administration projects that the U.S. will need 200 gigawatts of additional generating capacity by 2035 to replace capacity that will be retired and to meet new electricity demand.[xxxv] Of that amount, EIA expects that 13 percent will be coal-fired, 53 percent natural gas-fired, 4 percent will be from nuclear power, and 29 percent from renewable power (23 percent is expected to be wind power), assuming that no changes would be made to current laws and regulations.[xxxvi]

Conclusion

China realizes that it needs affordable energy to fuel its economic growth, and is building all forms of generating technologies at breakneck speed. By contrast, the electric generating construction program in the United States has slowed tremendously, owing to regulatory, financial, and legal problems. Without reasonably priced energy, it will be difficult to achieve high levels of economic growth in the U.S., and industry will move offshore where energy is more affordable. Will Secretary Chu’s policies get us to affordable energy, or will the administration’s policies divert us from obtaining the energy that we need to fuel our economy?

[ii] Renewable Energy Policy Network for the 21^st Century, Renewables Global Status Report 2009 Update, May 13, 2009, http://www.ren21.net/pdf/RE_GSR_2009_Update.pdf

[iii] http://www.seia.org/cs/about_solar_energy/industry_data

[iv] Ibid.

[v] Center for American Progress, Out of the Running, March 2010, http://www.eenews.net/public/25/14571/features/documents/2010/03/04/document_cw_01.pdf

[vi] Global Wind Energy Council, http://www.gwec.net/index.php?id=13, and Global Wind Energy Council, Global wind power boom continues amid economic woes, March 2, 2010, http://www.gwec.net/index.php?id=30&no_cache=1&tx_ttnews[tt_news]=247&tx_ttnews[backPid]=4&cHash=1196e940a0

[vii] American Wind Energy Association, U.S. Wind Energy breaks all records, January 26, 2010, http://www.awea.org/newsroom/releases/01-26-10_AWEA_Q4_and_Year-End_Report_Release.html

[viii] Global Wind Energy Council, Global wind power boom continues amid economic woes, March 2, 2010, http://www.gwec.net/index.php?id=30&no_cache=1&tx_ttnews[tt_news]=247&tx_ttnews[backPid]=4&cHash=1196e940a0

[ix] CNN, U.N. halts funds to China wind farms, December 1, 2010, http://edition.cnn.com/2009/BUSINESS/12/01/un.china.wind.ft/index.html

[x] The Wall Street Journal, “China’s Wind Farms Come with a Catch: Coal Plants”, September 28, 2009, http://online.wsj.com/article/SB125409730711245037.html

[xi] CNN, U.N. halts funds to China wind farms, December 1, 2010, http://edition.cnn.com/2009/BUSINESS/12/01/un.china.wind.ft/index.html

[xii]http://tonto.eia.doe.gov/cfapps/ipdbproject/iedindex3.cfm?tid=2&pid=34&aid=7&cid=r1,&syid=2004&eyid=2008&unit=MK

[xiii] Energy information Administration, International Energy Outlook 2009,  http://www.eia.doe.gov/oiaf/ieo/index.html

[xiv] National Energy Technology Laboratory, Tracking New Coal-fired Power Plants, January 8, 2010,  http://www.netl.doe.gov/coal/refshelf/ncp.pdf

[xv] http://windfarms.wordpress.com/2009/01/29/china-building-500-coal-plants/

[xvi] The New York Times, “Pollution From Chinese Coal Casts a Global Shadow”, http://www.nytimes.com/2006/06/11/business/worldbusiness/11chinacoal.html?_r=1

[xvii] Australia Signs Huge China Coal Deal, http://windfarms.wordpress.com/2010/02/06/australia-signs-huge-china-coal-deal/

[xviii] Nuclear Power in China”, World Nuclear Association, November 6, 2009, www.world-nuclear.org/info/inf63.html

[xix] Westinghouse News Releases, “Westinghouse and the Shaw Group Celebrate First Concrete Pour at Haiyang Nuclear Site in China”, September 29, 2009, http://westinghousenuclear.mediaroom.com/index.php?s=43&item=200

[xx] Westinghouse Statement Regarding NRC News Release on AP1000 Shield Building, http://westinghousenuclear.mediaroom.com/index.php?s=43&item=203

[xxi] Nuclear Power in China, World Nuclear Association, November 6, 2009, www.world-nuclear.org/info/inf63.html

[xxii] USA Today, “China Pushes Solar, Wind Power Development”, http://www.usatoday.com/money/industries/energy/environment/2009-11-17-chinasolar17_CV_N.htm

[xxiii] The Wall Street Journal, “Wind Power: China’s Massive and Cheap Bet on Wind Farms”, July 6, 2009, http://blogs.wsj.com/environmentalcapital/2009/07/06/wind-power-chinas-massive-and-cheap-bet-on-wind-farms/

[xxiv] Energy information Administration, Assumptions to the Annual Energy Outlook 2009, Table 8.2, Electricity Market Module, http://www.eia.doe.gov/oiaf/aeo/assumption/index.html

[xxv] National Energy Technology Laboratory, Tracking New Coal-fired Power Plants, January 8, 2010,  http://www.netl.doe.gov/coal/refshelf/ncp.pdf

[xxvi] A messy but practical strategy for phasing out the U.S. coal fleet, http://www.grist.org/article/death-of-a-thousand-cuts/

[xxvii]Ibid.

[xxviii]http://www.nei.org/resourcesandstats/documentlibrary/reliableandaffordableenergy/graphicsandcharts/uselectricityproductioncosts

[xxix] “Nuclear Power: Outlook for new U.S. Reactors”, Congressional Research Service, March 9, 2007, www.fas.org/sgp/crs/misc/RL33442.pdf

[xxx] Energy Information Administration, Annual Energy Review 2008, Table 9.1, http://www.eia.doe.gov/emeu/aer/pdf/pages/sec9_3.pdf

[xxxi] Environment News Service, Obama Backs First New U.S. Nuclear Plant with $8.3 Billion, February 16, 2010, http://www.ens-newswire.com/ens/feb2010/2010-02-16-091.html

[xxxii] The Wall Street Journal, An Energy Head Fake, March 11,2010, http://online.wsj.com/article/SB10001424052748704784904575112144130306052.html?mod=WSJ_Opinion_AboveLEFTTop

[xxxiii] Energy Information Administration, Electric Power Annual, Tables 1.1 and 1.1.A, http://www.eia.doe.gov/cneaf/electricity/epa/epa_sum.html

[xxxiv] For a repository of stalled and stopped energy projects, see U.S. Chamber of Commerce, “Project No Project Energy-Back On Track”, http://pnp.uschamber.com/

[xxxv] Energy Information Administration, Annual Energy Outlook 2010 Early Release, Table A9, http://www.eia.doe.gov/oiaf/aeo/pdf/appa.pdf

[xxxvi] Ibid.

The problem is that energy efficiency is not free. Appliances with greater energy efficiency cost more money—sometimes a lot more and frequently take more time to do the same amount of work.

Americans, not policymakers, should be free to choose which appliances make the most sense for their families instead of being forced to purchase more expensive and more energy efficient appliances.

Energy efficiency mandates are based on the premise that Americans consumers do not make wise choices about energy efficiency without the government forcing them to make “good” choices. It is a dubious claim. Consumers pay attention to their electric bill, and that is especially the case with commercial users of appliances.

Mandating greater energy efficient makes the appliances and equipment more expensive. In 2006, the Consumer Reports Best Buy for top-load washing machines only cost $380.[1] That was before the federal energy efficiency mandate for washing machines. In 2007, when washing machines had to comply with the new energy efficiency mandate, Consumer Reports said that “we can’t call any washer a Best Buy because models that did a very good job getting laundry clean cost $1,000 or more.”[2]

Since then, washing machines have improved—but the energy efficiency mandates still make them more expensive than they would otherwise be. The least expensive washing machine Consumer Reports recommends still costs $480[3] and the next lowest-priced recommend washing machine costs $650.[4] If a consumer saves $15 a year[5] in energy costs by using one of these more efficient washers, it takes nearly 5 years to recoup the extra costs of the $480 model and over 16 years to recoup the extra cost of the $650 model (even adjusting for inflation from 2006 to 2010).

Federal officials who desire to mandate energy efficiency standards apparently assume that households and businesses are not making smart choices about energy efficient appliances. This is not borne out by actual data. According to data from the Association of Home Appliance Manufactures, household appliances are becoming much more efficient. Between 1980 and 2008, air conditioners became 41.5 percent more energy efficient, dishwashers became almost twice as energy efficient, and refrigerators became nearly three times as energy efficient.[6] The graph below shows the percent improvement in energy efficiency of standard household appliances:

Americans are intimately aware of the costs of their utility bills and are always looking for ways to balance the convenience of their appliances with energy savings. When federal regulators step in and mandate energy efficiency improvements, the mandate increases the price of appliances and limits Americans’ choices. Actual data shows that appliances are becoming more energy efficient over time. There is no need for lawmakers to step in and artificially limit our choices.

[2] Consumer Reports Annual Buying Guide, Jan. 1, 2008, available at http://www.accessmylibrary.com/coms2/summary_0286-34226514_ITM.

[3] Consumer Reports, Washers & Dryers, Feb. 2010 p. 47. The model is a GE WJRE5500G.

[4] Id. at 46. The model is a Frigidaire Gallery GLTF2940F.

[5] In 2009, Consumer Reports noted online in subscriber only section of their website that “Each improvement in energy-efficiency scores, from good to very good, for instance, cuts an average of $10 to $20 from your annual energy expenditures.” The 2010 washing machines are rated at “Very Good” for energy efficiency, while the 2006 washer was rated as “Good” on energy efficiency.

[6] Data from the Association of Home Appliance Manufactures, cited by Mark J. Perry at http://mjperry.blogspot.com/2009/10/chart-above-shows-significant-increases.html.

The NREL Study Approach

Photo: NREL.gov

The NREL study considered four scenarios, three at the 20 percent level of wind generation, and one at the 30 percent level, the scenarios being differentiated by the number of onshore versus offshore wind turbines that would be built. The 20 percent scenario requires about 225,000 megawatts of additional wind capacity and the 30 percent scenario about 335,000 megawatts. That’s 9 to 13 times greater than the wind capacity that existed at the end of 2008. And it would require that 16,000 to 24,000 megawatts to be constructed each and every year. By comparison, the largest amount of wind capacity actually constructed in a year was slightly less than 10,000 megawatts, in 2009. [ii] Because wind generation is intermittent, the capacity of the new wind units needs to be above the target generation level. The offshore component would represent 0 to 28 percent of the required generating capacity, depending on the scenario. Offshore units are more expensive to build than the onshore units, but fewer transmission upgrades may be needed.

According to the study, this level of wind power is technically feasible, but to handle it the transmission system would need upgrades, including 17,050 to 22,697 miles of new high-tech lines, depending on the scenario, and over one hundred billion dollars in capital investments ($101 to $145 billion). The study determined that the cost of integrating intermittent wind power into the Eastern grid, in the 20 percent scenarios, would be $5 per megawatt-hour,[iii] or about 0.5 cents per kilowatt-hour of electricity (in 2009 dollars).[iv] The integration costs are the incremental costs incurred during operation that can be attributed to the variability and uncertainty introduced by wind generation. This cost is in addition to the costs of constructing the wind turbines and generating the wind power. The study also assumes that a large-scale consolidation of grid control organizations would need to occur in order to permit the sharing of wind power across the vast eastern grid, which could be a very large challenge.[v]

The study also noted that it would be imperative to upgrade the transmission grid before building the wind capacity because it takes longer to upgrade the grid than it does to build new wind capacity. Also, the authors point out that without the grid enhancements, there would be curtailment or shutting down of wind units. China has already found this out—their grid cannot handle 30 percent of the wind units they have constructed.[vi]

NREL admits that wind cannot be a capacity resource. And because our electricity system is dependent on capacity value—meaning that electricity can be obtained on demand and controlled as needed—wind power must have back-up power to provide that dedicated capacity. That issue alone limits wind’s usefulness.[vii] Texas, the state with the largest wind capacity (at 9,400 megawatts), provides exemptions to wind-turbine owners when their turbines do not deliver power as promised because the wind isn’t blowing. By contrast, when the owners of coal, nuclear, or gas-fired plants cannot deliver power owing to an operational or maintenance problem, they must pay for whatever back-up power is needed. The cost of backing-up wind power companies is thus paid for by all generators.[viii]

Among the report’s conclusions is this: The reductions in spending on fossil fuels that will come from replacing coal-fired electricity with wind-generated power would offset the costs of additional transmission.  But the report neglects to mention that it is more economic to construct and operate coal-fired plants than wind plants.  Let’s compare the findings of the NREL study to other studies and experience.

How Does NREL Compare With Other Studies and Reports?

One prominent progressive activist[ix] claimed that we are well on our way to meeting the target because the Department of Energy’s Energy Information Administration (EIA)[x] projects in their revised Annual Energy Outlook 2009[xi] that wind will be 5 percent of U.S. electricity in 2012 and that all renewable power would reach 14 percent. That forecast assumes the renewable incentives in the federal stimulus package, as well as the renewable electricity standards now operative in more than half of all U.S. states, which mandate that a certain percentage of future generation be produced from renewable energy. But the activist failed to provide EIA’s forecast for later years, which shows that wind does not remain the most economic option once better wind resources (lower-cost sites) are used up, and the subsidies provided by the stimulus are no longer available. In 2024, EIA forecasts wind to be only 2 percent higher than it is expected to be in 2012, and to represent only 4 percent of electricity generation, which is 1 percentage point less than its share in 2012. Biomass generation, a base-load technology, is expected to increase from 1 percent of generation in 2012 to 4 percent in 2024, with all renewable power increasing from 14 to 16 percent of total generation between 2012 and 2024.[xii]

EIA’s analyses, even when they include a cap-and-trade policy or a national renewable electricity standard (RES), show other clean technologies to be more economic than wind power once the lower-cost wind sites are exhausted and the subsidies expire, particularly given that significant new transmission will be needed to accommodate more remote wind resources. For example, following a request from Chairman Edward Markey of the House Energy and Commerce Committee, EIA analyzed a 25 percent RES in 2025 that was based on the proposal in the American Clean Energy and Security Act of 2009.[xiii] EIA considered two scenarios that depended on the amount of energy-efficiency credits available, one at the maximum level and one with no efficiency credits. In one scenario, wind in 2025 did not increase from reference case levels. In the other scenario, the increase in wind generation was 20 percent, increasing from a 4 percent to a 5 percent level of total generation. However, biomass generation increased either 82 percent or 134 percent from reference case levels. Having represented 4 percent of total generation in the reference case in 2025, biomass generation increased its share to either 7 percent or 10 percent of generation, depending on the case considered by EIA. (The larger share is in the no efficiency credit scenario.)

Based on another analysis at the request of Chairmen Waxman and Markey, EIA examined the proposed cap-and-trade provisions in the American Clean Energy and Security Act of 2009, along with its other provisions.[xiv] While many cases are analyzed, the basic case has renewable generation increasing from 16 percent in the reference case to 20 percent in the basic case in 2025, and nuclear generation increasing from 18 percent in the reference case to 25 percent in the basic case, a larger share increase. Both wind and biomass have a 4 percent share of the generation market in 2025 in the reference case, with biomass generation doubling its share to 8 percent in the basic case and wind increasing by only 1 percentage point to 5 percent. Since biomass and nuclear are base-load technologies, they generate more electricity from an equal amount of capacity than does wind power, which is an intermittent technology, generating electricity only when the wind blows.

Another advantage that biomass and nuclear technologies have over wind is their cost. Generation costs in 2016, according to the EIA, are $119 per megawatt-hour for nuclear (in 2008 dollars), $149.3 for onshore wind, $191.1 for offshore wind, and $111 for biomass.[xv] Thus, on an economic basis, it is no wonder that biomass and nuclear are expected to penetrate the market more than wind when the latter’s costs increase owing to more remote and difficult-to-construct sites. While the NREL study indicates that the savings from coal could pay for the increase in wind-transmission costs, it fails to report that conventional coal and integrated coal gasification technology are some of the cheapest technologies for generating electricity. According to EIA, their generation costs in 2016 (assuming the equivalent of a $15 per ton carbon dioxide emissions fee) are $100.4 per megawatt-hour and $110.5 per megawatt-hour respectively, obviously lower than the costs of the “clean” technologies.

Other studies have found similar results, including studies by the National Association of Manufacturers and the American Council for Capital Formation,[xvi] the Charles River Associates,[xvii] the Environmental Protection Agency,[xviii] and the Congressional Budget Office.[xix]

Another study analyzing transmission requirements was done recently for New England.[xx] The study identified a potential for up to 12,000 megawatts—a 75-fold increase from current wind capacity—with 7,500 megawatts onshore and 4,500 megawatts offshore. In order to meet the 12,000 megawatts of wind potential, the study anticipates 4,320 new miles of transmission with costs between $19 and $25 billion. A more modest scenario of 4,000 megawatts of on- and offshore wind was estimated to need 3,615 miles of new transmission, ranging in cost from $11 to $14 billion.[xxi] These results seem to imply that the transmission estimates from the NREL study may be low, as regards both the amount of transmission capacity needed and the associated cost of integrating massive amounts of wind capacity into the eastern interconnection.

Experience with Wind Energy Overseas

Denmark has succeeded in attaining about 20 percent of its generation from wind power, but that level of wind has not helped the local consumers that subsidized its construction. Because wind tends to blow more in the night when demand is lower and because Denmark has no way of storing the excess wind power, Denmark exports it to Norway, Sweden, and Germany.  Norway, which gets 98 percent of its electricity from hydropower,[xxii] is able to handle the excess wind because of its hydroelectric power, which acts like a huge battery for the wind power. [xxiii]

Germany, with about 5 percent of its generation from wind must often curtail its wind energy to protect its grid. More wind would require more conventional generation to back up the wind capacity—between 80 and 90 percent of the installed wind capacity.[xxiv]

Noise pollution from wind power has been reported in England, France, and New Zealand. In New Zealand, more than 750 complaints have been lodged against a large wind project near Makara since it began operating last April, with residents complaining about noise and vibration affecting their sleep. Anti-wind groups have sprung up here and abroad. The European Platform Against Windfarms lists 388 groups in 20 European countries.[xxv]

Conclusion

This NREL study is the second in a series that considers obtaining 20 percent of electricity generation from wind. The first study, released in the summer of 2008, looked at the feasibility of 20-percent wind power by 2030.[xxvi] While EIA’s projections have not changed during this time frame, the federal government continues to pour money into studies to promote wind technology and continues to subsidize it.[xxvii] EIA’s and others’ studies have shown that subsidized wind is not an economic choice, once the better wind resources are exhausted, and could at best provide 5 percent of generation by 2025 even with an RES or a cap-and-trade proposal.

NREL may be right that the necessary upgrade to the transmission grid is technically feasible, but the real issue is whether it would provide any benefit, given the other issues surrounding wind generation. These include wind power’s inability to provide capacity value and thus its need for other capacity to serve as back up; an intermittency that provides electricity out of sync with high-demand periods; noise pollution, which requires that wind power be located in remote areas away from consumers; the high subsidization of wind power compared to competing technologies; and its inability to be stored, which results in potential operational problems with the transmission grid. In short, while it may be possible to get 20 percent of our electricity from wind, we have to ask, “Is it worth the costs?”

[ii] http://www.awea.org/publications/reports/4Q09.pdf

[iii] The National Renewable Energy laboratory, Eastern Wind Integration and Transmission Study, January 2010, http://www.nrel.gov/wind/systemsintegration/pdfs/2010/ewits_final_report.pdf

[iv] Climate Wire reported the cost of achieving the 20-percent scenarios to be less than 2 cents per kilowatt-hour, but the author of this blog could not find that number in the NREL report. The NREL report converted the $5 per megawatt-hour, and got .005 cents per kilowatt-hour, which the author of this blog finds a conversion error.

[v] Climate Wire, TRANSMISSION: 20 percent wind power by 2024 possible but ‘challenging’ – study, January 21, 2010, http://www.eenews.net/climatewire/2010/01/21/archive/3?terms=transmission

[vi] The Wall Street Journal, “China’s Wind Farms Come with a Catch: Coal Plants”, September 28, 2009, http://online.wsj.com/article/SB125409730711245037.html

[vii] http://www.masterresource.org/2010/01/selling-industrial-wind-government-the-media-and-common-sense/#more-7063

[viii] The Wall Street Journal, Natural Gas Tilts at Windmills in Power Feud, March 2, 2010, http://online.wsj.com/article/SB10001424052748704188104575083982637451248.html?mod=WSJ_Com modities_LeadStory

[ix] http://climateprogress.org/2010/01/20/nrel-study-shows-20-percent-wind-is-possible-by-2024/

[x] The Energy Information Administration is an independent agency within the U.S. Department of Energy.

[xi] Energy Information Administration, An Updated Annual Energy Outlook 2009 Reference Case Reflecting Provisions of the American recovery and reinvestment Act and Recent Changes in the Economic Outlook, April 2009, http://www.eia.doe.gov/oiaf/servicerpt/stimulus/index.html

[xii] Ibid., Tables 8 and 16.

[xiii] Energy Information Administration, Impacts of a 25-Percent Renewable Electricity Standard as Proposed in the American Clean Energy and Security Act, April 2009, http://www.eia.doe.gov/oiaf/servicerpt/acesa/execsummary.html

[xiv] Energy information Administration, Energy market and Economic Impacts of H.R. 2454, the American Clean Energy and Security Act of 2009, August of 2009.

[xv] Energy Information Administration, 2016 Levelized Cost of New Generation Resources from the Annual Energy Outlook 2010, January 12, 2010, http://www.eia.doe.gov/oiaf/aeo/electricity_generation.html

[xvi] http://www.accf.org/publications/126/accf-nam-study

[xvii] The Charles River Associates, Inc., the Economic Impact of the American Clean Energy and Security Act of 2009, http://www.crai.com/uploadedFiles/Publications/impact-on-the-economy-of-the-american-clean-energy-and-security- act-of-2009.pdf

[xviii] http://www.epa.gov/climatechange/economics/economicanalyses.html#hr2454

[xix] http://www.cbo.gov/ftpdocs/102xx/doc10262/hr2454.pdf

[xx] New England 2030 Power System Study, February 2010, http://www.iso-ne.com/committees/comm_wkgrps/prtcpnts_comm/pac/reports/2010/economicstudyreportfinal_022610.pdf

[xxi] Industrial Wind Action Group, The Economics of transmission in New England, http://www.windaction.org/faqs/25906

[xxii]International Energy Agency, Electricity/Heat in Norway in 2006, http://www.iea.org/textbase/stats/electricitydata.asp?COUNTRY_CODE=NO.

[xxiii] http://www.aweo.org/ProblemWithWind.html

[xxiv] http://www.masterresource.org/2010/01/selling-industrial-wind-government-the-media-and-common-sense/#more-7063

[xxv] The Wall Street Journal, The Brewing Tempest Over Wind Power, March 2, 2010, http://online.wsj.com/article/SB10001424052748704240004575085631551312608.html?mod=googlen ews_wsj

[xxvi] U.S. Department of Energy, Energy Efficiency and Renewable Energy, “20% Wind Energy by 2030”, July 2008, http://www1.eere.energy.gov/windandhydro/pdfs/41869.pdf

[xxvii] Wind power gets a production tax credit of 2.1 cents per kilowatt hour for the first 10 years of operation for units constructed through 2012.

Green Stimulus Money Going Overseas

Since September 1, 84 percent of the $1.05 billion in clean energy grants has gone to foreign wind companies. Foreign countries benefiting from stimulus funds for wind technology are Spain (57%), Germany (12.6%), Japan (9.5%), and Portugal (5%).[i] Companies began applying for grants at the end of July and awards were announced by the two joint administrators of the program, the Energy and Treasury Departments, beginning on Sept. 1. In the first round of the grants, 77% went to foreign wind developers, followed by 84% in the second round. Of the 11 wind farms that received grants, 695 of the 982 installed turbines were manufactured by a foreign company.[ii]

Further, there are few restrictions on how the grants can be used. According to the Investigative Reporting Workshop at American University, over $800 million were provided to wind farms that were already producing electricity. As required by law, all 11 wind farms started operating after January 1, 2009, but before the grants were awarded.[iii]

Turbine Manufacturing Dominated by Foreign Competitors

The U.S. currently has the most installed wind capacity in the world, but it is not a leader in the manufacture of turbines. The Investigative Reporting Workshop reported that of the turbines currently under construction in the U.S., 67 percent are slated to be purchased from foreign-owned turbine manufacturers.[iv] According to U.S. customs data for 2008, and the U.S. Trade Commission, the U.S. imported $2.5 billion worth of wind turbines last year—up from $365 million in 2003.

In the future, wind turbines and/or their component parts may be coming from China where lower labor costs have allowed Chinese-made products to dominate many manufactured goods in the U.S. GE, a major U.S. wind turbine producer, already owns three facilities in China that produce turbine components. GE is also planning a factory in Vietnam that will employ 500 local workers and export 10,000 tons of components to GE Energy assembly plants around the world.[v]

China is already beginning to develop its own strong hold for wind power in the U.S. A joint venture between China’s Shenyang Power Group, the U.S. Renewable Energy Group, and Cielo Wind Power LP to develop a 600 megawatt wind farm on 36,000 acres in West Texas, costing $1.5 billion, was announced on October 29, 2009.[vi] A-Power Energy Generation Systems Ltd., a provider of distributed generation systems in China and a fast-growing manufacturer of wind turbines, will supply the turbines. A-Power Energy entered the wind power industry last year.[vii] Delivery of wind turbines for the West Texas wind farm is scheduled for March 2010.[viii]

Graphic courtesy Investigative Reporting Workshop

Solar Cells Manufactured Overseas

Not only are wind turbines mostly manufactured in countries overseas, but so are photovoltaic (PV) cells. Florida Power & Light (FPL) started operating its 25 megawatt photovoltaic solar plant in southwest Florida in conjunction with a visit to the plant by President Obama on October 27. [ix] The DeSoto plant in southwest Florida is the first of a total of 110 megawatts of solar capacity that FPL will install at 3 different sites by the end of 2010. Although Obama praised FPL’s work in the solar arena, he did not tell the American public that the components of the DeSoto plant are from foreign countries. While the PV cells were provided by a firm from California, they were made in the Phillipines. The steel PV frame holding the cells was produced in Canada, and the electrical parts and boxes were made in Germany, where solar power has been given heavy subsidies by the German Government. While German manufacturers have been producing PV technology for their country’s solar expansion, they are now concerned that China will take over their market due to costs that are 30% lower.[x]

Conclusion

The Obama Administration has told the American public that it will produce jobs and stimulate the U.S. economy through green energy technology. He has also touted that stimulus funds will be used for goods made in America. Yet, the the Investigative Reporting Workshop at American University finds that this is not the case. And, more examination of green energy development in the U.S., shows Asian and European countries well established here in providing the component parts for green energy technology.

The problem is not with international trade per se. In a genuinely free market, where politicians do not pick winners or losers, the most efficient firms would capture market share, be they American or foreign. The result would be the best products at the lowest prices for American consumers.

The real problems are a government “stimulus” plan and efforts to centrally plan a “green economy.” The government can only “stimulate” by spending money that it has first taxed or borrowed from the private sector. It would be bad enough for the government to destroy jobs in American fossil fuel industry while spending money on domestic producers of “green energy.” But it is particularly absurd for the U.S. government to cripple American industry while shoveling the lion’s share of the pork into the hands of foreign beneficiaries.

[ii] Ibid.

[iii] Ibid.

[iv] Ibid

[v] “Vietnam’s first turbine component plant underway”, May 13, 2009, http://www.vietnewsonline.vn/News/Business/Companies-Finance/6072/Vietnams-first-turbine-component-plant-underway.htm

[vi] www.reuters.com/article/pressRelease/idUS200008+29-Oct-2009+BW20091029

[vii] “Lone Star, Meet Red Star: China’s $1.5 Billion Wind-Power Deal in Texas”, October 30, 2009, http://blogs.wsj.com/chinarealtime/2009/10/30/lone-star-meet-red-starchina%e2%80%99s-15-billiob-wind-power-deal-in-texas/

[viii] www.reuters.com/article/pressRelease/idUS195122+29-Oct-2009+PRN20091029

[ix] http://www.instituteforenergyresearch.org/2009/10/26/highest-cost-generating-plant-comes-on-line-in-florida-to-obama-fanfare/

[x] “Solar-Power Incentives in Germany Draw Fire,” Vanessa Fuhrmans, Wall Street Journal, September 28, 2009, http://online.wsj.com/article/SB125383541153239329.html

Whatever the reason, we would like to apologize to AWEA. Apparently we compelled them to use ad hominem attacks like “anti-clean energy” to describe our organization and “bogus” to describe our research. We would have preferred that AWEA produce a substantive rebuttal to our recently released report, “Economic impacts from the promotion of renewable energies: The German Experience.”

In an October 21^st blog post, AWEA states “IER’s strategy clearly is to discredit wind energy in other countries.” We do not have a strategy to discredit wind energy in other countries. President Obama and top Administration officials are telling us that America must follow Germany’s example with respect to renewables or we will be left behind. Taking the President at his word, we sought to better understand Germany’s experience by commissioning a study by the think tank Rheinisch-Westfälisches Institut für Wirtschaftsforschung (RWI). The report found the following facts:

• Financial aid to Germany’s solar industry has now reached a level that far exceeds average wages, with per worker subsidies as high as $240,000.

• In 2008, the price mark-up attributable to the government’s support for “green” electricity was about 2.2 cents US per kWh. For perspective, a 2.2 cent per kWh increase here in the US would amount to an average 19.4 percent increase in consumer’s electricity bills.

• Between 2000 and 2010, the net cost of the German government support for solar was $73.2 billion and an additional $28.1 billion for wind. Because the U.S. economy is five times larger that Germany’s, a comparable expenditure in the U.S. would amount to about half a trillion dollars.

• Green jobs created by government actions disappear as soon as government support is terminated, a lesson the German government and the green companies it supports are beginning to learn.

• Government aid for wind power is now three times the cost of conventional electricity.

AWEA lobbies Congress for government handouts and subsidies for wind energy production, so we understand why they would like to these facts to remain hidden.  As the report shows, Germany’s experiment with promoting renewable energy has been expensive, and transplanting that experience to the United States will be expensive.

Apples to oranges, AWEA argues, because Germany is not a good model for the United States.  In their own words:

“The problem is that the United States is not considering a feed in tariff as a means to encourage wind development because it would not work. Instead, the US is considering a free-market based national Renewable Electricity Standard, and numerous studies have shown that an RES would decrease electricity prices.”

We hope AWEA informs President Obama and other top Administration officials that Germany’s feed-in tariff is not a good model for the United States.

We hope AWEA informs Representative Jay Inslee, who is promoting legislation to establish a federal feed-in tariff, that the United States is not considering a feed-in tariff, as it would probably come as a surprise to him.

In a Congressional hearing on September 24, 2009, Representative Inslee explained that Germany’s system of promoting renewables through a feed-in tariff is a better way to go than the Spanish experience.

We hope AWEA informs itself that Germany’s feed-in tariff “would not work” in the U.S., instead of describing it as “similar to a Renewable Electricity Standard” which AWEA strongly supports.  Here’s what AWEA’s website says:

“A distributed generation or “feed-in” tariff ensures that locally owned, small-scale renewable energy systems become significant contributors to the local power supply. A feed-in tariff is similar to a Renewable Electricity Standard (see “Wind energy policy issues” www.awea.org/faq/wwt_policy.html) except that instead of establishing a set quantity of renewable electricity a utility must generate, it establishes a set price at which a utility purchases excess electricity from a renewable generator, such as a small wind system.”

In AWEA’s blog post, they describe a national Renewable Electricity Standard as “a free-market” program. That is not accurate. In free markets, people are free to choose. A Renewable Electricity Standard forces people to buy wind, solar, and other government-approved energy sources. It is a mandate.  Forcing someone to buy your product is not a free-market program by any definition.

Contrary to AWEA’s assertion that a Renewable Electricity Standard would lower energy prices, common sense and real-world evidence suggest otherwise. Wind and other government-approved renewables are more expensive than other forms of energy. Common sense tells us that requiring people to buy expensive and inefficient renewable energy, through a renewable energy mandate, will only increase the cost of electricity. Currently, twenty-nine states have binding renewable electricity mandates and the electricity prices in those states are thirty-eight percent higher than in states that do not have binding renewable electricity mandates.

Lastly, AWEA states that they expect IER “to take on other countries that have successfully integrated wind into their energy mix.” That assumes, of course, that increased electricity prices and billions of dollars in subsidies is a sign of successful integration of wind into a country’s electricity mix. Some would beg to differ, especially those who are footing the bill.

The Administration tells us that U.S. energy policy should emulate countries like Spain, Denmark, and Germany. The facts show that the promotion of renewables in Spain, Denmark, and Germany has been very expensive and has resulted in lower employment overall as an opportunity cost of the lavish subsidies. Of course, it is up to policymakers to ultimately decide whether the United States should follow a similar path, but no one should mislead Americans into thinking that doing so will come without a cost.