Coal is increasing globally now- destroying the environment
Lazenby 12/16 (Henry Lazenby, Contributing Editor: Americas – Online for Mining Weekly, Organisation for Economic Co-operation and Development, “Global coal demand slows, peak demand not yet in sight”, http://www.miningweekly.com/article/global-coal-demand-slows-peak-demand-not-yet-in-sight-2013-12-16, December 16, 2013)
TORONTO (miningweekly.com) – Tougher Chinese policies aimed at reducing the country’s dependency on coal would help restrain global coal demand growth over the next five years, the International Energy Agency (IEA) found in its yearly ‘Medium-Term Coal Market Report’ released in Paris on Monday. Despite the slightly slower pace of growth, coal would meet more of the increase in global primary energy than oil or gas – continuing a trend that has been in place for more than a decade. “Like it or not, coal is here to stay for a long time to come. Coal is abundant and geopolitically secure, and coal-fired plants are easily integrated into existing power systems. With advantages like these, it is easy to see why coal demand continues to grow. “But it is equally important to emphasise that coal in its current form is simply unsustainable,” IEA executive director Maria van der Hoeven said at the launch of the report. The IEA found that coal was the fastest growing fossil fuel in absolute and relative terms in 2012. About 29% of global primary energy consumption were derived from coal and coal strengthened its position as the second-largest primary energy source, behind oil. Global coal consumption grew by 2.3%, from 7.53-billion tonnes in 2011, to an estimated 7.7-billion tonnes in 2012. Despite coal demand increasing by 170-million tonnes, demand growth was the third lowest on record over the last decade. The report found that China was the growth engine of global coal demand. In 2012, China posted the second-lowest demand growth (4.7%) since 2001. Nevertheless, coal consumption increased by 165-million tonnes, to an estimated 3.68-billion. Measured in energy units, China alone accounted for more than 50% of global coal demand in 2012. Total 2012 Chinese coal consumption was roughly equal to total coal demand of the US since 2009, Japan since 1993 and Germany since 1990. Put differently, China consumed over four times more thermal coal and almost ten times more metallurgical coal (met coal), than the world’s two largest consumers, the US (thermal coal) and Russia (met coal). In 2012, coal demand in the US decreased by 98-million tonnes – the second-strongest decline ever in the country. Due to the mild winter, low gas prices and plant retirements, coal-fired generation decreased by 235 TWh in 2012, while coal demand plummeted to an estimated 822-million tonnes. Coal consumption increased in Organisation for Economic Co-operation and Development (OECD) Europe (+17-million tonnes) and OECD Asia Oceania countries (+12-million tonnes) in 2012. Demand was the highest ever in OECD Asia Oceania (467-million tonnes) and the highest since 2008 in OECD Europe (810-million tonnes). In 2012, global coal supply reached an estimated 7.83-million. Compared with 2011, supply increased by 223-million tonnes, an amount greater than the yearly consumption of Japan. More supply came mainly from China (+130-million) and Indonesia (+82-million), whereas production declined strongly (-71-million) in the US. Coal demand would grow at an average rate of 2.3% a year through 2018, compared with the 2012 report’s forecast of 2.6% for the five years through to 2017 and the actual growth rate of 3.4% a year between 2007 and 2012. Chinese policies were already affecting the global coal market. While China would account for nearly 60% of new global demand over the next five years, government efforts to encourage energy efficiency and diversify electricity generation would dent that growth, slowing the global increase in demand. NO PEAK DEMAND YET Despite its moderated demand forecast, the report did not expect peak coal in China within the next five years, and the nation’s consumption and production would remain comparable to that of the rest of the world combined. Further, the report noted that China had approved a number of coal conversion projects to produce liquid fuels and synthetic natural gas – developments that could significantly reduce the country’s demand for other fossil fuels. “During the next five years, coal gasification will contribute more to China’s gas supply than shale gas. While there are many uncertainties about this technology, the potential scale of projects in China involving coal to produce synthetic natural gas and synthetic liquids is enormous. “If this were to become reality, it would mark not just an important development in coal markets but would also imply revisions to gas and oil forecasts,” IEA director of energy markets and security Keisuke Sadamori said. For the rest of Asia, coal demand was expected to stay buoyant over the next five years. India and countries in Southeast Asia were increasing consumption, and India would rival China as the top importer in the next five years, the report says.
Warming causes extinction- tipping point
Dyer ‘12 (London-based independent journalist, PhD from King's College London, citing UC Berkeley scientists (Gwynne, "Tick, tock to mass extinction date," The Press, 6-19-12, l/n, accessed 8-15-12)
Meanwhile, a team of respected scientists warn that life on Earth may be on the way to an irreversible "tipping point". Sure. Heard that one before, too. Last month one of the world's two leading scientific journals, Nature, published a paper, "Approaching a state shift in Earth's biosphere," pointing out that more than 40 per cent of the Earth's land is already used for human needs. With the human population set to grow by a further two billion by 2050, that figure could soon exceed 50 per cent. "It really will be a new world, biologically, at that point," said the paper's lead author, Professor Anthony Barnofsky of the University of California, Berkeley. But Barnofsky doesn't go into the details of what kind of new world it might be. Scientists hardly ever do in public, for fear of being seen as panic-mongers. Besides, it's a relatively new hypothesis, but it's a pretty convincing one, and it should be more widely understood. Here's how bad it could get. The scientific consensus is that we are still on track for 3 degrees C of warming by 2100, but that's just warming caused by human greenhouse- gas emissions. The problem is that +3 degrees is well past the point where the major feedbacks kick in: natural phenomena triggered by our warming, like melting permafrost and the loss of Arctic sea-ice cover, that will add to the heating and that we cannot turn off. The trigger is actually around 2C (3.5 degrees F) higher average global temperature. After that we lose control of the process: ending our own carbon- dioxide emissions would no longer be enough to stop the warming. We may end up trapped on an escalator heading up to +6C (+10.5F), with no way of getting off. And +6C gives you the mass extinction. There have been five mass extinctions in the past 500 million years, when 50 per cent or more of the species then existing on the Earth vanished, but until recently the only people taking any interest in this were paleontologists, not climate scientists. They did wonder what had caused the extinctions, but the best answer they could come up was "climate change". It wasn't a very good answer. Why would a warmer or colder planet kill off all those species? The warming was caused by massive volcanic eruptions dumping huge quantities of carbon dioxide in the atmosphere for tens of thousands of years. But it was very gradual and the animals and plants had plenty of time to migrate to climatic zones that still suited them. (That's exactly what happened more recently in the Ice Age, as the glaciers repeatedly covered whole continents and then retreated again.) There had to be a more convincing kill mechanism than that. The paleontologists found one when they discovered that a giant asteroid struck the planet 65 million years ago, just at the time when the dinosaurs died out in the most recent of the great extinctions. So they went looking for evidence of huge asteroid strikes at the time of the other extinction events. They found none. What they discovered was that there was indeed major warming at the time of all the other extinctions - and that the warming had radically changed the oceans. The currents that carry oxygen- rich cold water down to the depths shifted so that they were bringing down oxygen- poor warm water instead, and gradually the depths of the oceans became anoxic: the deep waters no longer had any oxygen. When that happens, the sulfur bacteria that normally live in the silt (because oxygen is poison to them) come out of hiding and begin to multiply. Eventually they rise all the way to the surface over the whole ocean, killing all the oxygen-breathing life. The ocean also starts emitting enormous amounts of lethal hydrogen sulfide gas that destroy the ozone layer and directly poison land- dwelling species. This has happened many times in the Earth's history.
Emissions cause extinction- ocean acidification
Payet et al. ’10 (Janot Mendler de Suarez, Biliana Cicin-Sain, Kateryna Wowk, Rolph Payet, Ove Hoegh-Guldberg Global Forum on Oceans, Coasts, and Islands Global Oceans Conference 2010 May 3-7, 2010, Ensuring Survival: Oceans, Climate and Security Prepared by Janot Mendler de Suarez is a founding member of the Pardee Center Task Force, Games for a New Climate, serves on the Council of Advisors for the Collaborative Institute on Oceans Climate and Security at the University of Massachusetts-Boston, and chairs the Global Oceans Forum Working Group on Oceans and Climate. Mendler de Suarez was instrumental in the design, testing and development of the GEF International Waters Learning Exchange and Resource Network, or GEF-IW:LEARN. Ove Hoegh-Guldberg (born 26 September 1959, in Sydney, Australia), is the inaugural Director of the Global Change Institute at the University of Queensland, and the holder of a Queensland Smart State Premier fellowship (2008–2013). He is best known for his work on climate change and coral reefs. His PhD topic focused upon the physiology of corals and their zooxanthellae under thermal stress. Hoegh-Guldberg is a professor [4] at the University of Queensland. He is a leading coral biologist whose study focuses on the impact of global warming and climate change on coral reefs e.g. coral bleaching.[5] As of 5 October 2009, he had published 236 journal articles, 18 book chapters and been cited 3,373 times.[6] Dr. Biliana Cicin-Sain (PhD in political science, UCLA, postdoctoral training, Harvard University) is Director of the Gerard J. Mangone Center for Marine Policy and Professor of Marine Policy at the University of Delaware’s College of Earth, Ocean, and Environment. Rolph Payet FRGS is an international policy expert, researcher and speaker on environment, climate and island issues, and was the first President & Vice-Chancellor of the University of Seychelles, He was educated at the University of East Anglia (BSc), University of Surrey (MBA), University of Ulster (MSc), Imperial College London, and the John F. Kennedy School of Government at Harvard University. He received his PhD from Linnaeus University in Environmental Science, where he undertook multidisciplinary research in sustainable tourism)
The global oceans play a vital role in sustaining life on Earth by generating half of the world’s oxygen, as the largest active carbon sink absorbing a significant portion of anthropogenic carbon dioxide (CO2), regulating climate and temperature, and providing economic resources and environmental services to billions of people around the globe. The oceans of our planet serve as an intricate and generous life-support system for the entire biosphere. Ocean circulation, in constant interaction with the earth’s atmosphere, regulates global climate and temperature – and through multiple feedback loops related to ocean warming, is also a principal driver of climate variability and long-term climate change. Climate change is already affecting the ability of coastal and marine ecosystems to provide food security, sustainable livelihoods, protection from natural hazards, cultural identity, and recreation to coastal populations, especially among the most vulnerable communities in tropical areas. There is now global recognition of the importance of forests and terrestrial ecosystems in addressing climate change. An emerging understanding, through ecosystem-based management, of the complex and intimate relationship between climate change and the oceans offers new hope for mitigating the negative impacts of global warming, and for building ecosystem and community resilience to the climate-related hazards that cannot be averted. Ecosystem-based ocean and coastal management also generates co-benefits ranging from food security and health to livelihoods and new technologies that contribute to progress in equitable and environmentally sustainable development towards a low-carbon future. Recent observations indicate that impacts of our changing global climate on oceans and coasts – especially in the Arctic–now far exceed the findings of the 2007 report of the Intergovernmental Panel on Climate Change (IPCC). Moreover, we know that increasingly ocean acidification (a consequence of rising atmospheric CO2) is impacting on coral reefs, marine invertebrates and as a consequence changing the structure and nature of ocean ecosystems. The oceans offer an important key to averting some of the potentially far-reaching, devastating and long-lasting humanitarian and environmental consequences of climate change. With good governance and ecosystem-based management, the world’s oceans and coastal regions can play a vital role in transitioning to a low-carbon economy through improved food security, sustainable livelihoods, as well as natural protection from threats to human health, hazards and extreme weather events. Out of all the biological carbon captured in the world, over half is captured by marine living organisms, and hence the term “blue carbon.” In a 2009 report produced by three United Nations agencies, leading scientists found that carbon emissions equal to half the annual emissions of the global transport sector are being captured and stored by marine ecosystems such as mangroves, salt marshes and seagrass meadows. A combination of reducing deforestation on land, allied to restoring the coverage and health of these coastal ecosystems could deliver up to 25 percent of the emissions reductions needed to avoid ‘dangerous’ climate change. But the report warns that instead of maintaining and enhancing these natural carbon sinks, humanity is damaging and degrading them at an accelerating rate. It estimates that up to seven percent of these ‘blue carbon sinks’ are being lost annually or seven times the rate of loss of 50 years ago (UNEP 2009). “Oceans” and “coasts” must be integrated into the UNFCCC negotiating text in order to appropriately address both the critical role of oceans in the global climate system, and the potential for adaptive management of coastal and marine ecosystems to make significant contributions to both mitigation and adaptation. Ecosystem-based approaches generate multiple co-benefits, from absorbing greenhouse gas emissions to building resilience to the significant and differential impacts that coastal and island communities are facing due to global climate change. While the international community must redouble its efforts to adopt major emissions reduction commitments, at the same time, there is a need to focus on the scientifically supported facts about natural solutions through ecosystem-based approaches that contribute to climate adaptation and mitigation, to human health and well-being, and to food security. This policy brief provides an overview of the latest facts and concerns on the synergy between oceans and climate, highlights climate change impacts on ocean ecosystems and coastal and island communities, and presents key recommendations for a comprehensive framework to better integrate vital ocean and coastal concerns and contributions into climate change policy and action. 1. The Oceans Have a Vital Role in Combating Climate Change The oceans are the blue lungs of the planet – breathing in CO2 and exhaling oxygen. The oceans have also absorbed over 80 percent of the heat added to the climate system (IPCC 2007), and act as the largest active carbon sink on earth. Ocean absorption of CO2 reduces the rate at which it accumulates in the atmosphere, and thus slows the rate of global warming (Denman 2007). Over the last 250 years, oceans have been responsible for absorbing nearly half of the increased CO2 emissions produced by burning fossil fuels (Laffoley 2010) as well as a significant portion of increased greenhouse gas emissions due to landuse change (Sabine et al. 2004). A combination of cyclical processes enables the ocean to absorb more carbon than it emits. Three of the ocean’s key functions drive this absorption: first is the “solubility pump,” whereby CO2 dissolves in sea water in direct proportion to its concentration in the atmosphere – the more CO2 in the atmosphere, the more will dissolve in the ocean; second is water temperature – CO2 dissolves more easily in colder water so greater absorption occurs in polar regions; third is mixing of CO2 to deeper levels by ocean currents. Convergence of carbon-enriched currents at the poles feed into the so called ocean ‘conveyor belt,’ a global current which cycles carbon into ocean depths with a very slow (about 1500 years) turnover back to the surface. The ‘biological pump’ begins with carbon captured through photosynthesis in surface water micro-organisms, which make up 80-90 percent of the biomass in the ocean. These tiny plants and animals feed carbon into the food chain, where it is passed along to larger invertebrates, fish, and mammals. When sea plants and animals die and part of their organic matter sinks to the ocean floor, it is transformed into dissolved forms of carbon. The seabed is the largest reservoir of sequestered carbon on the planet. However the efficiency of the ocean’s ability to capture carbon relies on the structure and ‘health’ of the upper layer marine ecosystem (Williams 2009). Increasing oceanic concentrations of CO2 influence the physiology, development and survival of marine organisms, and the basic functioning and critical life support services that ocean ecosystems provide will be different under future acidified ocean conditions (UNEP 2010). Increased atmospheric CO2 has already increased the acidity of the ocean by 30 percent, making the ocean more acidic than it has been in the last 650,000 years, and affecting marine life, such as corals, microscopic plants and animals. Increased ocean acidity is likely to not only affect the ‘biological pump’ and ocean food webs, but is also likely to influence the global carbon cycle leading to an increase in global warming (Williams 2009). Ocean Acidification: Facts, Impacts and Action Ocean acidification is happening now–at a rate and to a level not experienced by marine organisms for about 20 million years (Turley et al. 2006; Blackford and Gilbert 2007, Pelejero et al. 2010). Mass extinctions have been linked to previous ocean acidification events and such events require tens of thousands of years for the ocean to recover. Levels of CO2 produced by humans have decreased the pH (i.e. increased the acidity) of the surface ocean by 0.1 units lower than pre-industrial levels, and are predicted to further decrease surface ocean pH by roughly 0.4 units by 2100 (IPCC 2001). Decreases in calcification and biological function due to ocean acidification are capable of reducing the fitness of commercially valuable sea life by directly damaging their shells or by compromising early development and survival (Kurihara et al. 2007, Kurihara et al. 2009, Gazeau et al. 2007). Many ecosystems such as coral reefs are now well outside the conditions under which they have operated for millions of years (Hoegh-Guldberg et al. 2007, Pelejero et al. 2010). Even if atmospheric CO2 is stabilized at 450 parts per million (ppm), it is estimated that only about eight percent of existing tropical and subtropical coral reefs will be surrounded by waters favorable to shell construction. At 550 ppm, coral reefs may dissolve globally (IAP 2009). Climate change is adversely impacting marine and coastal ecosystems and biodiversity. Further, acidification of the oceans can impact food security both directly and indirectly through impacts on marine ecosystems and food webs, and also threatens the ocean’s ability to continue providing important ecosystem services to billions of people around the world (Worm et al. 2006). The bottom line is that no effective means of reversing ocean acidification currently exists at a scale sufficient to protect marine biodiversity and food webs. There are no short-term solutions to ocean acidification. Substantial perturbations to ocean ecosystems can only be avoided by urgent and rapid reductions in global greenhouse gas emissions and the recognition and integration of this critical issue into the global climate change debate (UNEP 2010).
Its anthro
Powell ‘13 (science author. He has been a college and museum president and was a member of the National Science Board for 12 years, appointed first by President Reagan and then by President George H. W. Bush. February 25, 2013. (Jim, “Consensus: 99.84% of Peer-Reviewed Articles Support the Idea of Global Warming,” http://thecontributor.com/why-climate-deniers-have-no-scientific-credibility-one-pie-chart)
Polls show that many members of the public believe scientists substantially disagree about human-caused global warming. The gold standard of science is the peer-reviewed literature. If there is disagreement among scientists, based not on opinion but on hard evidence, it will be found in the peer-reviewed literature. I searched the Web of Science for peer-reviewed scientific articles published between January 1, 1991 and November 9, 2012 that have the keyword phrases "global warming" or "global climate change." The search produced 13,950 articles. See my methodology. I read whatever combination of titles, abstracts, and entire articles necessary to identify articles that "reject" human-caused global warming. To be classified as rejecting, an article had to clearly and explicitly state that the theory of global warming is false or, as happened in a few cases, that some other process better explains the observed warming. Articles that merely claimed to have found some discrepancy, some minor flaw, some reason for doubt, I did not classify as rejecting global warming. Articles about methods, paleoclimatology, mitigation, adaptation, and effects at least implicitly accept human-caused global warming and were usually obvious from the title alone. John Cook and Dana Nuccitelli also reviewed and assigned some of these articles; Cook provided invaluable technical expertise. This work follows that of Oreskes (Science, 2005) who searched for articles published between 1993 and 2003 with the keyword phrase “global climate change.” She found 928, read the abstracts of each and classified them. None rejected human-caused global warming. Using her criteria and time-span, I get the same result. Deniers attacked Oreskes and her findings, but they have held up. Some articles on global warming may use other keywords, for example, “climate change” without the "global" prefix. But there is no reason to think that the proportion rejecting global warming would be any higher. By my definition, out of 13,950 peer-reviewed articles published on global warming since 1991, only 23, or 0.16 percent, clearly reject global warming or endorse a cause other than CO2 emissions for observed warming. The list of articles that reject global warming is here. The 23 articles have been cited a total of 112 times over the nearly 21-year period, for an average of close to 5 citations each. That compares to an average of about 19 citations for articles answering to "global warming," for example. Four of the rejecting articles have never been cited; four have citations in the double-digits. The most-cited has 17. Of one thing we can be certain: had any of these articles presented the magic bullet that falsifies human-caused global warming, that article would be on its way to becoming one of the most-cited in the history of science. The articles have a total of 33,690 individual authors. The top 10 countries represented, in order, are USA, England, China, Germany, Japan, Canada, Australia, France, Spain, and Netherlands. (The chart shows results through November 9, 2012.) Global warming deniers often claim that bias prevents them from publishing in peer-reviewed journals. But 23 articles in 18 different journals, collectively making several different arguments against global warming, expose that claim as false. Articles rejecting global warming can be published, but those that have been have earned little support or notice, even from other deniers. A few deniers have become well known from newspaper interviews, Congressional hearings, conferences of climate change critics, books, lectures, websites and the like. Their names are conspicuously rare among the authors of the rejecting articles. Like those authors, the prominent deniers must have no evidence that falsifies global warming. Anyone can repeat this search and post their findings. Another reviewer would likely have slightly different standards than mine and get a different number of rejecting articles. But no one will be able to reach a different conclusion, for only one conclusion is possible: Within science, global warming denial has virtually no influence. Its influence is instead on a misguided media, politicians all-too-willing to deny science for their own gain, and a gullible public. Scientists do not disagree about human-caused global warming. It is the ruling paradigm of climate science, in the same way that plate tectonics is the ruling paradigm of geology. We know that continents move. We know that the earth is warming and that human emissions of greenhouse gases are the primary cause. These are known facts about which virtually all publishing scientists agree.
Floating SMRs solve- DOE engagement key- collapse of nuclear industry means warming inevitable
Licata 4/27 (John Licata, John Licata is the Founder & Chief Energy Strategist of Blue Phoenix Inc, Motley Fool, “Can Small Modular Nuclear Reactors Find Their Sea Legs?”, http://www.fool.com/investing/general/2014/04/27/can-small-modular-nuclear-reactors-find-their-sea.aspx, April 27, 2014)
Nuclear power plants do bring jobs to rural areas, and in some cases they actually boost local housing prices since these plants create jobs. However, whether or not you believe nuclear power does or does not emit harmful radiation, many people would likely opt to not live right next door to a nuclear power plant facility if they had the choice. Today, they may not even need to consider such a move thanks to a floating plant concept coming out of MIT, which largely builds on the success of the U.S. Army of Corp Engineers' MH-1A floating nuclear reactor, installed on the Sturgis, a vessel that provided power to military and civilians around the Panama Canal. The Sturgis was decommissioned, but only because there was ample power generation on land. So the viability of a floating nuclear plant does make a lot of sense. Presently the only floating nuclear plant is being constructed in Russia (expected to be in service in two years). However, that plant is slated to be moored on a barge in a harbor. That differs from MIT's idea to put a 200 MWe reactor on a floating platform roughly six miles out to sea. The problem with the floating reactor idea or land-based SMR version is most investors are hard-pressed to fork over money needed for a nuclear build-out that could cost billions of dollars and take over a decade to complete. That very problem is today plaguing the land-based mPower SMR program of The Babcock & Wilcox Co. (NYSE: BWC ) . Also, although the reactors would have a constant cooling source in the ocean water, I'd like to see studies that show that sea life is not disrupted. Then there is always the issue with security and power lines to the mainland which needs to be addressed. At a time when reducing global warming is becoming a hotly debated topic by the IPCC, these SMRs (land or sea based) can help reduce our carbon footprint if legislation would allow them to proceed. Instead, the government is taking perfectly good cathedral-sized nuclear power plants offline, something they will likely come to regret in coming years from an economic and environmental perspective. Just ask the Germans. SMRs can produce dependable baseload power that is more affordable for isolated communities, and they can be used in remote areas by energy and metals production companies while traditional reactors cannot. So the notion of plopping SMRs several miles offshore so they can withstand tsunami swells is really interesting. If the concept can actually gain momentum that would help Babcock, Westinghouse, and NuScale Power. I would also speculate that technology currently being used in the oil and gas drilling sector, possibly even from the robotics industry, could be integrated into offshore light water nuclear designs for mooring, maintenance, and routine operational purposes. In today's modern world, we have a much greater dependence on consumer electronics, we are swapping our dependence of foreign oil with a growing reliance for domestic natural gas, and we face increasing pressures to combat climate change here at home as well as meet our own 2020 carbon goals. With that said, we need to think longer term and create domestic clean energy industries that can foster new jobs, help keep the power on even when blackouts occur and produce much less carbon at both the private and public sector levels. Therefore to me, advancing the SMR industry on land or by sea is a nice way to fight our archaic energy paradigm and move our energy supply into a modern era. Yet without the government's complete commitment to support nuclear power via legislation and a much needed expedited certification process, the idea of a floating SMR plant will be another example of wasted energy innovation that could simply get buried at sea.
And United States creates a massive export market for SMR’s – latent nuclear capability ensures speed- significant reduction of emissions
Rosner, Goldberg, and Hezir et. al. ‘11 (Robert Rosner, Robert Rosner is an astrophysicist and founding director of the Energy Policy Institute at Chicago. He was the director of Argonne National Laboratory from 2005 to 2009, and Stephen Goldberg, Energy Policy Institute at Chicago, The Harris School of Public Policy Studies, Joseph S. Hezir, Principal, EOP Foundation, Inc., Many people have made generous and valuable contributions to this study. Professor Geoff Rothwell, Stanford University, provided the study team with the core and supplemental analyses and very timely and pragmatic advice. Dr. J’Tia Taylor, Argonne National Laboratory, supported Dr. Rothwell in these analyses. Deserving special mention is Allen Sanderson of the Economics Department at the University of Chicago, who provided insightful comments and suggested improvements to the study. Constructive suggestions have been received from Dr. Pete Lyons, DOE Assistant Secretary of Nuclear Energy; Dr. Pete Miller, former DOE Assistant Secretary of Nuclear Energy; John Kelly, DOE Deputy Assistant Secretary for Nuclear Reactor Technologies; Matt Crozat, DOE Special Assistant to the Assistant Secretary for Nuclear Energy; Vic Reis, DOE Senior Advisor to the Under Secretary for Science; and Craig Welling, DOE Deputy Office Director, Advanced Reactor Concepts Office, as well as Tim Beville and the staff of DOE’s Advanced Reactor Concepts Office. The study team also would like to acknowledge the comments and useful suggestions the study team received during the peer review process from the nuclear industry, the utility sector, and the financial sector. Reviewers included the following: Rich Singer, VP Fuels, Emissions, and Transportation, MidAmerican Energy Co.; Jeff Kaman, Energy Manager, John Deere; Dorothy R. Davidson, VP Strategic Programs, AREVA; T. J. Kim, Director—Regulatory Affairs & Licensing, Generation mPower, Babcock & Wilcox; Amir Shahkarami, Senior Vice President, Generation, Exelon Corp.; Michael G. Anness, Small Modular Reactor Product Manager, Research & Technology, Westinghouse Electric Co.; Matthew H. Kelley and Clark Mykoff, Decision Analysis, Research & Technology, Westinghouse Electric Co.; George A. Davis, Manager, New Plant Government Programs, Westinghouse Electric Co.; Christofer Mowry, President, Babcock & Wilcox Nuclear Energy, Inc.; Ellen Lapson, Managing Director, Fitch Ratings; Stephen A. Byrne, Executive Vice President, Generation & Transmission Chief Operating Officer, South Carolina Electric & Gas Company; Paul Longsworth, Vice President, New Ventures, Fluor; Ted Feigenbaum, Project Director, Bechtel Corp.; Kennette Benedict, Executive Director, Bulletin of the Atomic Scientist; Bruce Landrey, CMO, NuScale; Dick Sandvik, NuScale; and Andrea Sterdis, Senior Manager of Strategic Nuclear Expansion, Tennessee Valley Authority. The authors especially would like to acknowledge the discerning comments from Marilyn Kray, Vice-President at Exelon, throughout the course of the study, “Small Modular Reactors – Key to Future Nuclear Power”, http://epic.uchicago.edu/sites/epic.uchicago.edu/files/uploads/SMRWhite_Paper_Dec.14.2011copy.pdf, November 2011)
As stated earlier, SMRs have the potential to achieve significant greenhouse gas emission reductions. They could provide alternative base load power generation to facilitate the retirement of older, smaller, and less efficient coal generation plants that would, otherwise, not be good candidates for retrofitting carbon capture and storage technology. They could be deployed in regions of the U.S. and the world that have less potential for other forms of carbon-free electricity, such as solar or wind energy. There may be technical or market constraints, such as projected electricity demand growth and transmission capacity, which would support SMR deployment but not GW-scale LWRs. From the on-shore manufacturing perspective, a key point is that the manufacturing base needed for SMRs can be developed domestically. Thus, while the large commercial LWR industry is seeking to transplant portions of its supply chain from current foreign sources to the U.S., the SMR industry offers the potential to establish a large domestic manufacturing base building upon already existing U.S. manufacturing infrastructure and capability, including the Naval shipbuilding and underutilized domestic nuclear component and equipment plants. The study team learned that a number of sustainable domestic jobs could be created – that is, the full panoply of design, manufacturing, supplier, and construction activities – if the U.S. can establish itself as a credible and substantial designer and manufacturer of SMRs. While many SMR technologies are being studied around the world, a strong U.S. commercialization program can enable U.S. industry to be first to market SMRs, thereby serving as a fulcrum for export growth as well as a lever in influencing international decisions on deploying both nuclear reactor and nuclear fuel cycle technology. A viable U.S.-centric SMR industry would enable the U.S. to recapture technological leadership in commercial nuclear technology, which has been lost to suppliers in France, Japan, Korea, Russia, and, now rapidly emerging, China.
Small reactors are key to jumpstarting a global industry –NRC sends a global signal
Shellenberger ’12 (Michael, president of the breakthrough institute, Jessica Lovering, policy analyst at the breakthough institute, Ted Nordhaus, chairman of the breakthrough institute. September 7, 2012. [“Out of the Nuclear Closet,” http://www.foreignpolicy.com/articles/2012/09/07/out_of_the_nuclear_closet?page=0,0)
To move the needle on nuclear energy to the point that it might actually be capable of displacing fossil fuels, we'll need new nuclear technologies that are cheaper and smaller. Today, there are a range of nascent, smaller nuclear power plant designs, some of them modifications of the current light-water reactor technologies used on submarines, and others, like thorium fuel and fast breeder reactors, which are based on entirely different nuclear fission technologies. Smaller, modular reactors can be built much faster and cheaper than traditional large-scale nuclear power plants. Next-generation nuclear reactors are designed to be incapable of melting down, produce drastically less radioactive waste, make it very difficult or impossible to produce weapons grade material, useless water, and require less maintenance. Most of these designs still face substantial technical hurdles before they will be ready for commercial demonstration. That means a great deal of research and innovation will be necessary to make these next generation plants viable and capable of displacing coal and gas. The United States could be a leader on developing these technologies, but unfortunately U.S. nuclear policy remains mostly stuck in the past. Rather than creating new solutions, efforts to restart the U.S. nuclear industry have mostly focused on encouraging utilities to build the next generation of large, light-water reactors with loan guarantees and various other subsidies and regulatory fixes. With a few exceptions, this is largely true elsewhere around the world as well. Nuclear has enjoyed bipartisan support in Congress for more than 60 years, but the enthusiasm is running out. The Obama administration deserves credit for authorizing funding for two small modular reactors, which will be built at the Savannah River site in South Carolina. But a much more sweeping reform of U.S. nuclear energy policy is required. At present, the Nuclear Regulatory Commission has little institutional knowledge of anything other than light-water reactors and virtually no capability to review or regulate alternative designs. This affects nuclear innovation in other countries as well, since the NRC remains, despite its many critics, the global gold standard for thorough regulation of nuclear energy. Most other countries follow the NRC's lead when it comes to establishing new technical and operational standards for the design, construction, and operation of nuclear plants. What's needed now is a new national commitment to the development, testing, demonstration, and early stage commercialization of a broad range of new nuclear technologies -- from much smaller light-water reactors to next generation ones -- in search of a few designs that can be mass produced and deployed at a significantly lower cost than current designs. This will require both greater public support for nuclear innovation and an entirely different regulatory framework to review and approve new commercial designs. In the meantime, developing countries will continue to build traditional, large nuclear power plants. But time is of the essence. With the lion's share of future carbon emissions coming from those emerging economic powerhouses, the need to develop smaller and cheaper designs that can scale faster is all the more important. A true nuclear renaissance can't happen overnight. And it won't happen so long as large and expensive light-water reactors remain our only option. But in the end, there is no credible path to mitigating climate change without a massive global expansion of nuclear energy. If you care about climate change, nothing is more important than developing the nuclear technologies we will need to get that job done.
Other countries model our technology- global demonstration
Traub ‘12 (James, fellow of the Centre on International Cooperation. He writes Terms of Engagement for Foreign Policy,” “Transforming the future lies in our hands,” http://gulfnews.com/opinions/columnists/transforming-the-future-lies-in-our-hands-1.1118704, December 14, 2012)
Despite President Barack Obama’s vow, in his first post-reelection press conference, to take decisive action on climate change, the global climate talks in Doha dragged to a close with the US, as usual, a target of activists’ wrath. The Obama administration has shown no interest in submitting to a binding treaty on carbon emissions and refuses to increase funding to help developing countries reduce their own emissions, even as the US continues to behave as a global scofflaw on climate change. Actually, that is not true — the last part, anyway. According to the International Energy Agency, US emissions have dropped 7.7 per cent since 2006 — “the largest reduction of all countries or regions”. Yes, you read that correctly. The US, which has refused to sign the Kyoto Accords establishing binding targets for emissions, has reduced its carbon footprint faster than the greener-than-thou European countries. The reasons for this have something to do with climate change itself (warm winters mean less heating oil — something to do with market forces — the shift from coal to natural gas in power plants) and something to do with policy at the state and regional levels. And in the coming years, as both new gas-mileage standards and new power-plant regulations, championed by the Obama administration kick in, policy will drive the numbers further downwards. US emissions are expected to fall 23 per cent between 2002 and 2020. Apparently, Obama’s record on climate change is not quite as calamitous as reputation would have it. The West has largely succeeded in bending downwards the curve of carbon emissions. However, the developing world has not. Last year, China’s emissions rose 9.3 per cent; India’s, 8.7 per cent. China is now the world’s No 1 source of carbon emissions, followed by the US, the European Union (EU) and India. The emerging powers have every reason to want to emulate the energy-intensive economic success of the West — even those, like China, who have taken steps to increase energy efficiency, are not prepared to do anything to harm economic growth. The real failure of US policy has been, first, that it is still much too timid; and second, that it has not acted in such a way as to persuade developing nations to take the truly difficult decisions which would put the world on a sustainable path. There is a useful analogy with the nuclear nonproliferation regime. In an earlier generation, the nuclear stockpiles of the US and the Soviet Union posed the greatest threat to global security. Now, the threat comes from the proliferation of weapons to weak or rogue states or to non-state actors. However, the only way that Washington can persuade other governments to join in a tough nonproliferation regime is by taking the lead in reducing its own nuclear stockpile — which the Obama administration has sought to do, albeit with very imperfect success. In other words, where power is more widely distributed, US action matters less in itself, but carries great weight as a demonstration model — or anti-demonstration model. Logic would thus dictate that the US bind itself in a global compact to reduce emissions, as through the Nuclear Nonproliferation Treaty (NPT) it has bound itself to reduce nuclear weapons. However, the Senate would never ratify such a treaty. And even if it did, would China and India similarly bind themselves? Here the nuclear analogy begins to break down because the NPT mostly requires that states submit to inspections of their nuclear facilities, while a climate change treaty poses what looks very much like a threat to states’ economic growth. Fossil fuels are even closer to home than nukes. Is it any wonder that only EU countries and a few others have signed the Kyoto Accords? A global version of Kyoto is supposed to be readied by 2015, but a growing number of climate change activists — still very much a minority — accept that this may not happen and need not happen. So what can Obama do? It is possible that much tougher action on emissions will help persuade China, India and others that energy efficiency need not hinder economic growth. As Michael Levi, a climate expert at the Council on Foreign Relations points out, the US gets little credit abroad for reducing emissions largely — thanks to “serendipitous” events. Levi argues, as do virtually all policy thinkers and advocates, that the US must increase the cost of fossil fuels, whether through a “carbon tax” or cap-and-trade system, so that both energy efficiency and alternative fuels become more attractive and also to free-up money to be invested in new technologies. This is what Obama’s disappointed supporters thought he would do in the first term and urge him to do now. Obama is probably not going to do that. In his post-election news conference, he insisted that he would find “bipartisan” solutions to climate change and congressional Republicans are only slightly more likely to accept a sweeping change in carbon pricing than they are to ratify a climate-change treaty. The president also said that any reform would have to create jobs and growth, which sounds very much like a signal that he will avoid new taxes or penalties (even though advocates of such plans insist that they would spur economic growth). All these prudent political calculations are fine when you can afford to fail. But we cannot afford to fail. Global temperatures have already increased 0.7 degrees Celsius. Disaster really strikes at a 2 degree Celsius increase, which leads to large-scale drought, wildfires, decreased food production and coastal flooding. However, the current global trajectory of coal, oil and gas consumption means that, according to Fatih Birol, the International Energy Agency’s chief economist, “the door to a 2 degree Celsius trajectory is about to close.” That is how dire things are. What, then, can Obama do that is equal to the problem? He can invest. Once the fiscal cliff negotiations are behind him, and after he has held his planned conversation with “scientists, engineers and elected officials,” he can tell the American people that they have a once-in-a-lifetime opportunity to transform the future — for themselves and for people everywhere. He can propose — as he hoped to do as part of the stimulus package of 2009 — that the US build a “smart grid” to radically improve the efficiency of electricity distribution. He can argue for large-scale investments in research and development of new sources of energy and energy-efficient construction technologies and lots of other whiz-bang things. This, too, was part of the stimulus spending; it must become bigger and permanent. The reason Obama should do this is, first, because the American people will (or could) rally behind a visionary programme in a way that they never will get behind the dour mechanics of carbon pricing. Second, because the way to get to a carbon tax is to use it as a financing mechanism for such a plan. Third, because oil and gas are in America’s bloodstream; as Steven Cohen, executive director of the Earth Institute, puts it: “The only thing that’s going to drive fossil fuels off the market is cheaper renewable energy.” Fourth, the US cannot afford to miss out on the gigantic market for green technology. Finally, there’s leverage. China and India may not do something sensible but painful, like adopting carbon pricing, because the US does so, but they will adopt new technologies if the US can prove that they work without harming economic growth. Developing countries have already made major investments in reducing air pollution, halting deforestation and practising sustainable agriculture. They are just too modest. It is here, above all, that the US can serve as a demonstration model — the world’s most egregious carbon consumer showing the way to a low-carbon future. Global warming-denial is finally on the way out. Three-quarters of Americans now say they believe in global warming and more than half believe that humans are causing it and want to see a US president take action. President Obama does not have to do the impossible. He must, however, do the possible.
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