India's Baseline Plan for Nuclear Energy Self-Sufficiency

Total Page:16

File Type:pdf, Size:1020Kb

India's Baseline Plan for Nuclear Energy Self-Sufficiency ANL/NE-09/03 India’s Baseline Plan for Nuclear Energy Self-sufficiency Nuclear Engineering Division Prepared for: National Nuclear Security Administration Office of International Regimes and Agreements National Nuclear Security Administration On the cover India's Nuclear facilities About Argonne National Laboratory Argonne is a U.S. Department of Energy laboratory managed by UChicago Argonne, LLC under contract DE-AC02-06CH11357. The Laboratory’s main facility is outside Chicago, at 9700 South Cass Avenue, Argonne, Illinois 60439. For information about Argonne and its pioneering science and technology programs, see www.anl.gov. Availability of This Report This report is available, at no cost, at http://www.osti.gov/bridge. It is also available on paper to the U.S. Department of Energy and its contractors, for a processing fee, from: U.S. Department of Energy Office of Scientific and Technical Information P.O. Box 62 Oak Ridge, TN 37831-0062 phone (865) 576-8401 fax (865) 576-5728 [email protected] Disclaimer This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government nor any agency thereof, nor UChicago Argonne, LLC, nor any of their employees or officers, makes any warranty, express or implied, or assumes any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represents that its use would not infringe privately owned rights. Reference herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise, does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States Government or any agency thereof. The views and opinions of document authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof, Argonne National Laboratory, or UChicago Argonne, LLC. ANL/NE-09/03 India’s Baseline Plan for Nuclear Energy Self-sufficiency by R.G. Bucher Technical Nonproliferation Policy Support Section National Security and Nonproliferation Department Nuclear Engineering Division Energy Science and Engineering Directorate Argonne National Laboratory for U.S. Department of Energy National Nuclear Security Administration Office of Defense Nuclear Nonproliferation Office of Nonproliferation and International Security Office of International Regimes and Agreements January 2009 Prepared for: National Nuclear Security Administration Office of International Regimes and Agreements National Nuclear Security Administration ANL/NE-09/03 This page intentionally left blank ANL/NE-09/03 Table of Contents 1.0 Introduction............................................................................................................. 1 2.0 Overview of India’s Three Stage Program ............................................................. 2 2.1 Stage 1 Reactors.................................................................................................. 3 2.1.1 Pressurized Heavy Water Reactors (PHWRs) ............................................ 3 2.1.2 Foreign Stage 1 Light Water Reactors (LWRs).......................................... 5 2.2 Stage 2 Reactors.................................................................................................. 7 2.2.1 Fast Breeder Test Reactor (FBTR) ............................................................. 8 2.2.2 Prototype Fast Breeder Reactor (PFBR)................................................... 11 2.3 Stage 3 Systems ................................................................................................ 14 2.3.1 Advanced Heavy Water Reactor (AHWR)............................................... 15 2.3.2 Accelerator Driven Subcritical Systems (ADS) ....................................... 17 2.3.3 Compact High Temperature Reactor (CHTR).......................................... 18 3.0 Nuclear Power Production Goals...................................................................... 20 Appendix A. India’s Nuclear Facilities ...................................................................... 22 Appendix B. Issues with the U-233 / Th-232 Fuel Cycle .......................................... 23 References......................................................................................................................... 26 List of Tables Table I Stage 1 Nuclear Power Plants in Operation.................................................6 Table II Stage 1 Nuclear Power Plants under Construction ......................................6 List of Figures Fig. 1 Schematic Flow Sheet for the Fast Breeder Test Reactor (FBTR) Power Plant .....9 Fig. 2 Schematic Flow Sheet for the Prototype Fast Breeder Reactor (PFBR) Power Plant .......................................................................................................................12 Fig. 3 Schematic Flow Sheet for the Advanced Heavy Water Reactor (AHWR) Power Plant ............................................................................................................16 Fig. 4 Cross Section of AHWR Cluster ...........................................................................16 Fig. 5 Compact High Temperature Reactor (CHTR) Core Cross-Section Design (Left) and Single Fuel Block (Right).....................................................................19 Fig. 6 Compact High Temperature Reactor (CHTR) Vertical Cross-Section Design .....20 i ANL/NE-09/03 This page intentionally left blank ii ANL/NE-09/03 1.0 Introduction “Energy is the engine for economic growth and when the country moves ahead on the growth path, it is necessary to exploit every energy resource available in the country.”1 India’s nuclear energy strategy has traditionally strived for energy self-sufficiency, driven largely by necessity following trade restrictions imposed by the Nuclear Suppliers Group (NSG) following India’s “peaceful nuclear explosion” of 1974. On September 6, 2008, the NSG agreed to create an exception opening nuclear trade with India, which may create opportunities for India to modify its baseline strategy. The purpose of this document is to describe India’s “baseline plan,” which was developed under constrained trade conditions, as a basis for understanding changes in India’s path as a result of the opening of nuclear commerce. Note that this treatise is based upon publicly available information. No attempt is made to judge whether India can meet specified goals either in scope or schedule. In fact, the reader is warned a priori that India’s delivery of stated goals has often fallen short or taken a significantly longer period to accomplish. It has been evident since the early days of nuclear power that India’s natural resources would determine the direction of its civil nuclear power program. It’s modest uranium but vast thorium reserves dictated that the country’s primary objective would be thorium utilization. i Estimates of India’s natural deposits vary appreciably, 2 , 3 but its uranium reserves are known to be extremely limited, totaling approximately 80,000 tons, on the order of 1% of the world’s deposits; and nominally one-third of this ore is of very low uranium concentration. However, India’s roughly 300,000 tons of thorium reserves account for approximately 30% of the world’s total. Confronted with this reality, the future of India’s nuclear power industry is strongly dependent on the development of a thorium- based nuclear fuel cycle as the only way to insure a stable, ii sustainable, iii and autonomousiv program.4 The path to India’s nuclear energy self-sufficiency was first outlined in a seminal paper5 by Drs. H. J. Bhabha and N. B. Prasad presented at the Second United Nations Conference on the Peaceful Uses of Atomic Energy in 1958. The paper described a three stage plan for a sustainable nuclear energy program consistent with India’s limited uranium but abundant thorium natural resources. In the first stage, natural uranium would be used to fuel graphite or heavy water moderated reactors. Plutonium extracted from the spent fuel of these thermal reactors would drive fast reactors in the second stage that would contain thorium blankets for breeding uranium-233 (U-233). In the final stage, this U-233 would fuel thorium burning reactors that would breed and fission U-233 in situ. This three stage blueprint still reigns as the core of India’s civil nuclear power program. i Thorium, unlike uranium, does not contain an isotope capable of sustaining the fission chain reaction necessary for a nuclear reactor. However, thorium can be converted into such an isotope [uranium-233 (U-233)] in, for example, nuclear reactors, providing fuel for a nuclear power industry; this conversion process is reviewed in detail in Appendix B. ii stable: free from supply disruption and market volatility iii sustainable: renewable through utilization of available resources to breed additional nuclear fuel iv autonomous: self-sufficient via indigenous capabilities so as to not be subject to external influence 1 ANL/NE-09/03 India’s progress in the development of nuclear power, however, has been impacted by its isolation from the international nuclear community for its development of nuclear weapons and consequent refusal to sign the Nuclear Nonproliferation Treaty (NPT). 6 , 7 Initially, India was engaged in numerous cooperative research programs with foreign countries; for example, under the “Atoms for Peace” program, India
Recommended publications
  • Separating Indian Military and Civilian Nuclear Facilities
    Separating Indian Military and Civilian Nuclear Facilities Institute for Science and International Security (ISIS) By David Albright and Susan Basu December 19, 2005 The agreement announced on July 18, 2005 by President George Bush and Prime Minister Manmohan Singh regarding the establishment of a U.S.-India “global partnership” will require changes to U.S. non-proliferation laws and policies and could dramatically increase nuclear and nuclear-related commerce with India. Part of this agreement is an Indian commitment to separate its civil and military nuclear programs and put declared civil facilities under international safeguards. Safeguards should apply in perpetuity, with minor, standard exceptions that do not include use in nuclear explosives or weapons. In addition, safeguarded nuclear material should not co-mingle with unsafeguarded nuclear material in any facility, unless this unsafeguarded nuclear material also comes under safeguards. This latter condition is an example of “contamination,” a key principle of safeguards. Although these conditions do not appear to have been accepted by India, they are necessary to prevent civil nuclear cooperation from benefiting India’s nuclear weapons program. To accomplish these goals, India needs to place all its nuclear facilities not directly associated with nuclear weapons production or deployment under safeguards. India has many civil nuclear facilities in this category. In addition, India should place its nuclear facilities associated with its naval nuclear fuel cycle under international safeguards. Exempting such naval-related facilities from safeguards would undermine efforts to safeguard such facilities in non-nuclear weapon states party to the Nuclear Non-Proliferation Treaty. Brazil accepted safeguards on its prototype naval reactor and its enrichment plants at Aramar dedicated to the production of naval reactor fuel.
    [Show full text]
  • India's Stocks of Civil and Military Plutonium and Highly Enriched Uranium, End 2014
    PlutoniumPlutonium andand HighlyHighly EnrichedEnriched UraniumUranium 20152015 INSTITUTEINSTITUTE FOR FOR SCIENCE SCIENCE AND AND INTERNATIONAL INTERNATIONAL SECURITY SECURITY India’s Stocks of Civil and Military Plutonium and Highly Enriched Uranium, End 20141 By David Albright and Serena Kelleher-Vergantini November 2, 2015 1 This report is part of a series on national and global stocks of nuclear explosive materials in both civil and military nuclear programs. This work was generously funded by a grant from the Nuclear Threat Initiative (NTI). This work builds on earlier work done at ISIS by one of the authors. 440 First Street NW, Suite 800, Washington, DC 20001 TEL 202.547.3633 Twitter @TheGoodISIS E-MAIL [email protected] • www.isis-online.org Contents Summary .............................................................................................................................................. 2 1. India’s Civil Plutonium Stockpile .................................................................................................... 3 1.1 Civil Plutonium Production ........................................................................................................ 3 1.2 Plutonium Separation ................................................................................................................. 5 1.2.1 India’s Fast Breeder Reactors .............................................................................................. 6 1.3 Unirradiated Plutonium Inventory .............................................................................................
    [Show full text]
  • Long Term Sustainability of Nuclear Power in India - Prospects and Challenges
    Page | 45 5 LONG TERM SUSTAINABILITY OF NUCLEAR POWER IN INDIA - PROSPECTS AND CHALLENGES Vipin Shukla, Vivek J. Pandya and C. Ganguly ABSTRACT: Nuclear power is emerging as a viable for at least 12 additional indigenous PHWR 700 carbon – free option for India to meet the ever- reactors. The target is to have ~ 45,000 MWe nuclear increasing demand of base – load electricity at an power by 2030. Since the last six years, India has affordable price, in a safe, secured and sustainable also been importing natural uranium oreconcentrate manner. Since the 1970s, India had been pursuing (UOC) and finished natural UO2 pellets tofuel the a self-reliant indigenous nuclear power program ten PHWR 220 units at Rawathbhata, Kakrapara and linking the fuel cycles of Pressurized Heavy Water Narora. India has also been importing enriched UO2 Reactor (PHWR), Fast Breeder Reactor (FBRs) and fuel for the two BWRs at Tarapur and the two VVERs thorium-based self-sustaining breeder in stage 1, 2 at Kudankulunm. The present paper summarizes the and 3 respectively, for efficient utilization of modest on-going and the expanding nuclear power program low grade (0.03-0.06 % U3O8) uranium reserves but in India highlighting the challenges of availability of vast thorium resources. Natural uranium fueled uranium and plutonium for manufacturing nuclear PHWR is the backbone of the program. India has fuels. achieved industrial maturity in PHWR and the related uranium fuel cycle technology. Presently, 21 reactors are in operation, including 16 units of PHWR 220 MWe, 2 units of PHWR 540 MWe, 2 units of Boiling Water Reactor (BWR) 160 MWe and a (Water KEYWORDS Water Energy Reactor) VVER 1000 MWe.
    [Show full text]
  • Cost Reduction and Safety Design Features of New Nuclear Power Plants in India
    XA0201901 Annex 13 Cost reduction and safety design features of new nuclear power plants in India V.K. Sharma Nuclear Power Corporation of India Ltd, India Abstract. Indian Nuclear Power Programme is designed to exploit limited reserves of uranium and extensive resource of thorium. Pressurised heavy water reactors are found most suitable and form the main stay of the first stage of the programme. Thorium utilisation is achieved in the second & third stages. Today India has total installed capacity of 2720 MWe of PHWRs which are operating with high plant load factors of over 80%. Rich experience of construction and operation of over 150 reactor years is being utilised in effecting cost reduction and safety improvements. Standardisation and reduction in gestation period by preproject activities, advance procurement and work packages of engineer, procure, construct and commission are some of the techniques being adopted for cost reduction in the new projects. But the cost of safety is rising. Design basis event of double ended guillotine rupture of primary pressure boundary needs a relook based on current knowledge of material behaviour. This event appears improbable. Similarly some of the safety related systems like closed loop cooling water operating at low temperature and pressure, and low usage factors may be designed as per standard codes without invoking special nuclear requirements. The paper will address these issues and highlight the possible areas for cost reduction both in operating and safety systems. Modern construction and project management techniques are being employed. Gestation period of 5 years and cost of less than US $1400 per KWe are the present targets.
    [Show full text]
  • Nuclear Energy in India's Energy Security Matrix
    Nuclear Energy in India’s Energy Security Matrix: An Appraisal 2 of 55 About the Author Maj Gen AK Chaturvedi, AVSM, VSM was commissioned in Corps of Engineers (Bengal Sappers) during December 1974 and after a distinguished career of 38 years, both within Engineers and the staff, retired in July 2012. He is an alumnus of the College of Military Engineers, Pune; Indian Institute of Technology, Madras; College of Defence Management, Secunderabad; and National Defence College, New Delhi. Post retirement, he is pursuing PhD on ‘India’s Energy Security: 2030’. He is a prolific writer, who has also been quite active in lecture circuit on national security issues. His areas of interests are energy, water and other elements of ‘National Security’. He is based at Lucknow. http://www.vifindia.org © Vivekananda International Foundation Nuclear Energy in India’s Energy Security Matrix: An Appraisal 3 of 55 Abstract Energy is essential for the economic growth of a nation. India, which is in the lower half of the countries as far as the energy consumption per capita is concerned, needs to leap frog from its present position to upper half, commensurate with its growing economic stature, by adopting an approach, where all available sources need to be optimally used in a coordinated manner, to bridge the demand supply gap. A new road map is needed to address the energy security issue in short, medium and long term. Solution should be sustainable, environment friendly and affordable. Nuclear energy, a relatively clean energy, has an advantage that the blueprint for its growth, which was made over half a century earlier, is still valid and though sputtering at times, but is moving steadily as envisaged.
    [Show full text]
  • Risks of Operating Candu 6 Nuclear Power Plants: Gentilly Unit 2 Refurbishment and Its Global Implications
    Risks of Operating Candu 6 Nuclear Power Plants: Gentilly Unit 2 Refurbishment and its Global Implications November 2008 BY GORDON R. THOMPSON Institute for Resource and Security Studies www.greenpeace.ca RISKS OF OPERATING ABSTRACT Operation of any nuclear power plant creates risks. CANDU 6 plants CANDU 6 NUCLEAR POWER PLANTS: pose additional risks arising from their use of natural uranium as fuel and Gentilly Unit 2 Refurbishment and its heavy water as moderator. A CANDU 6 reactor could experience a violent Global Implications power excursion, potentially leading to containment failure and a release of radioactive material to the environment. Spent fuel discharged from a CANDU 6 could be diverted and used to produce plutonium for nuclear BY GORDON R. THOMPSON weapons. Those risks are examined here with special attention to Hydro- Institute for Resource and Security Studies Quebec’s plan for refurbishment and continued operation of the Gentilly 2 plant. That action would lead to continued radiological risk in Quebec Prepared under the sponsorship of and could promote sales of CANDU 6 plants in other countries, thereby Greenpeace Canada contributing to an enhanced risk of nuclear-weapon proliferation. Hydro- Quebec’s plan also faces regulatory risks. Safety issues could increase the © Copyright November 2008 cost of refurbishing Gentilly 2, weakening an already marginal economic case for refurbishment. This report proposes an approach for systematic, GREENPEACE CANADA public assessment of the risks associated with Gentilly 2. 33 Cecil St. Toronto, Ontario ABOUT THE INSTITUTE FOR RESOURCE AND SECURITY STUDIES M5T 1N1 The Institute for Resource and Security Studies (IRSS) is an independent, www.greenpeace.ca nonprofit, Massachusetts corporation, founded in 1984.
    [Show full text]
  • TRANSITION from OPERATION to DECOMMISSIONING of CIRUS RESEARCH REACTOR by Rakesh Ranjan, S
    BARC/2018/E/005 BARC/2018/E/005 TRANSITION FROM OPERATION TO DECOMMISSIONING OF CIRUS RESEARCH REACTOR by Rakesh Ranjan, S. Bhattacharya, C.G . Karhadkar, Prasit Mandal, M.K. Ojha Reactor Operations Division 2018 BARC/2018/E/005 GOVERNMENT OF INDIA DEPARTMENT OF ATOMIC ENERGY BARC/2018/E/005 TRANSITION FROM OPERATION TO DECOMMISSIONING OF CIRUS RESEARCH REACTOR by Rakesh Ranjan*, S. Bhattacharya, C.G . Karhadkar, Prasit Mandal, M.K. Ojha [email protected]* Reactor Operations Division Reactor Group BHABHA ATOMIC RESEARCH CENTRE MUMBAI, INDIA 2018 BARC/2018/E/005 BIBLIOGRAPHIC DESCRIPTION SHEET FOR TECHNICAL REPORT (as per IS : 9400 - 1980) 01 Security classification : Unclassified 02 Distribution : External 03 Report status : New 04 Series : BARC External 05 Report type : Technical Report 06 Report No. : BARC/2018/E/005 07 Part No. or Volume No. : 08 Contract No. : 10 Title and subtitle : Transition from operation to decommissioning of Cirus research reactor 11 Collation : 82 p., 39 figs., 9 tabs. 13 Project No. : 20 Personal author(s) : Rakesh Ranjan; S. Bhattacharya, C.G. Karhadkar; Prasit Mandal; M.K. Ojha 21 Affiliation of author(s) : Reactor Operations Division, Bhabha Atomic Research Centre, Mumbai 22 Corporate author(s): Bhabha Atomic Research Centre, Mumbai - 400 085 23 Originating unit : Reactor Operations Division, Bhabha Atomic Research Centre, Mumbai 24 Sponsor(s) Name : Department of Atomic Energy Type : Government Contd... BARC/2018/E/005 30 Date of submission : April 2018 31 Publication/Issue date : April 2018 40 Publisher/Distributor : Head, Scientific Information Resource Division, Bhabha Atomic Research Centre, Mumbai 42 Form of distribution : Hard copy 50 Language of text : English 51 Language of summary : English 52 No.
    [Show full text]
  • “Advanced” Isn't Always Better
    SERIES TITLE OPTIONAL “Advanced” Isn’t Always Better Assessing the Safety, Security, and Environmental Impacts of Non-Light-Water Nuclear Reactors “Advanced” Isn’t Always Better Assessing the Safety, Security, and Environmental Impacts of Non-Light-Water Nuclear Reactors Edwin Lyman March 2021 © 2021 Union of Concerned Scientists All Rights Reserved Edwin Lyman is the director of nuclear power safety in the UCS Climate and Energy Program. The Union of Concerned Scientists puts rigorous, independent science to work to solve our planet’s most pressing problems. Joining with people across the country, we combine technical analysis and effective advocacy to create innovative, practical solutions for a healthy, safe, and sustainable future. This report is available online (in PDF format) at www.ucsusa.org/resources/ advanced-isnt-always-better and https:// doi.org/10.47923/2021.14000 Designed by: David Gerratt, Acton, MA www.NonprofitDesign.com Cover photo: Argonne National Laboratory/Creative Commons (Flickr) Printed on recycled paper. ii union of concerned scientists [ contents ] vi Figures, Tables, and Boxes vii Acknowledgments executive summary 2 Key Questions for Assessing NLWR Technologies 2 Non-Light Water Reactor Technologies 4 Evaluation Criteria 5 Assessments of NLWR Types 8 Safely Commercializing NLWRs: Timelines and Costs 9 The Future of the LWR 9 Conclusions of the Assessment 11 Recommendations 12 Endnotes chapter 1 13 Nuclear Power: Present and Future 13 Slower Growth, Cost and Safety Concerns 14 Can Non-Light-Water Reactors
    [Show full text]
  • Current Affairs in Defence Category
    Current Affairs in Defence Category Lakshya-1, successfully Test Fired by India As part of a routine trial, India successfully test fired indigenously developed micro-light pilot- less target aircraft 'Lakshya-1' from the Integrated Test Range (ITR) image at Chandipur near Balasore in Odisha. Lakshya-1 has been developed by India's Aeronautic Development Establishment (ADE), Bangalore. Lakshya is a sub-sonic, re-usable aerial target system. It is remote controlled from the ground and is designed to impart training to both air borne and air defence pilots. Lakshya-1 is fitted with an advanced digitally controlled engine. Since 2000, Lakshya has been inducted into the Indian Air Force. On Januray 2012, a successful trial of Lakshya was conducted Lakshya-2 was successfully test flown on January 25 and 27 last. A New Chapter in India China bilateral relations: Maritime Cooperation India and China moved onto a new bilateral relation as they agreed upon a joint-declaration on: 1. Sea Piracy 2. Technological know-how on seabed research. The first offer aims to demand the Coast Guards, the Air-forces and Navies of both the nations to work in unison against the pirates. The modalities to be figured out by a mutual group. The second proposal aims to share technological know-how on sea-bed research falling outside the domain of coastal countries. The aim of this second proposal is to ducking India’s apprehensions after China was allowed by the International Seabed Authority to explore in the south-west Indian Ocean. IAF to induct ‘MI-17 V5 helicopter’ in its fleet Russian Helicopter In 2008, India had signed an agreement with Russia to induct 80 Mi-17 V5 helicopters Falls in the category of armed helicopter Has significant and effectual firepower with the latest and sinewy engines that will deeply heighten its payload carriage capability at higher altitudes.
    [Show full text]
  • Nuclear Power: India’S Development Imperative
    VIF TASK FORCE REPORT Nuclear Power: India’s Development Imperative Vivekananda International Foundation Nuclear Power: India’s Development Imperative Vivekananda International Foundation 1 2 Table of Contents Task Force Members 5 Acknowledgements 6 Research Assistance 6 Foreword 7 Introductory Comments 9 List of Abbreviations 11 Executive Summary 15 Chapter 1: Global Context 22 1.1 Share of nuclear power in the energy mix 23 1.2 External costs 24 1.3 Cost of large scale integration of nuclear energy 25 1.4 Climate change and IPCC Report 25 1.5 MIT report on the Future of Nuclear Energy in a Carbon-Constrained World 26 1.6 Risk mitigation strategies 27 Chapter 2: Indian Scenario – Challenges and Opportunities 29 2.1 Tariff 32 2.2 Level playing field 32 2.3 Carbon pricing 33 2.4 Energy import bill 34 2.5 Credit vs. indigenisation 35 2.6 Fleet mode construction 35 2.7 Foreign acquisition 36 2.8 Acquisition of uranium assets overseas 36 2.9 Manpower 36 Chapter 3: Progress So Far 37 3.1 1st stage programme based on PHWRs and LWRs 37 3.2 PHWRs to be set up in fleet mode 38 3.3 Light Water Reactor (LWR) to be set up in cooperation with Russian Federation 38 3.4 2nd & 3rd stage programme 38 3 Chapter 4: International Cooperation, its Potential and Limitation 40 4.1 High temperature reactors 41 Chapter 5: Nuclear Industry Eco System 43 5.1 Efficient supply chain management with no bottlenecks 43 5.2 Capacity expansion of vendor base 44 5.3 To improve quality of vendors 45 5.4 Diversification in supply chain across the geopolitical spectrum 45
    [Show full text]
  • The "Self-Limiting" Future of Nuclear Power
    DECEMBER 9, 2011 | No. 738 THE "SELF-LIMITING" FUTURE OF NUCLEAR POWER There are a very large number of studies all of which reach the similar conclusion: THE "SELF-LIMITING" FUTURE energy efficiency programs and renewable power technologies are better than OF NUCLEAR POWER 1 nuclear power plants. The fact that these studies come from a variety of sources, across the political spectrum, and from different disciplines, suggests that there 1. Why does nuclear power is a consensus among abroad base of independent, non-partisan experts that persist 1 nuclear power plants are a poor choice for producing electricity. So why, then, does nuclear power persist? Is it the superficially attractive narrative associated 2. Market Failure and with nuclear energy that conflates it with national progress and pride, alongside Externalities 3 an immensely powerful and effective lobby, a new generation that has either forgotten or never known why it failed previously, deeply rooted habits that favor 3. Subsidies and the giant power stations, and lazy reporting by a credulous press? Socialization of Risk 4 (738.6203) Benjamin K. Sovacool - In Nuclear power generators cannot be 4. Hubris and Technological a chapter of his new book 'Contesting mass-produced. They take much longer Fantasy 6 the Future of Nuclear Power –A Critical to build, and are therefore exposed to Global Assessment of Atomic Energy' escalating interest rates, inaccurate 4.b. Conclusion 9 Benjamin K. Sovacool argues that three demand forecasts, and unforeseen primary culprits exist: the true costs of labor conflicts. Their centralization End notes 9 nuclear energy are not borne by those requires costly and expansive transmis- benefiting from it, resulting in what sion and distribution systems.
    [Show full text]
  • India's Military Plutonium Inventory, End 2004
    India’s Military Plutonium Inventory, End 2004 By David Albright ISIS May 7, 2005 Estimating the size of India’s inventory of separated weapon-grade plutonium has become more difficult following its nuclear tests in May 1998. India treats this number as highly classified, partly because such estimates provide a direct indication of the number of nuclear weapons it may possess. The purpose of this report is to summarize estimates of its stock of weapon-grade plutonium. A companion report discusses India’s highly enriched uranium stock. Production Complex At the core of India’s production of plutonium for nuclear weapons are two relatively small heavy water-moderated reactors and a plutonium separation plant at the Bhabha Atomic Energy Center (BARC) in Mumbai. The two reactors use natural uranium metal fuel and produce weapon-grade plutonium. The uranium metal fuel for these reactors is also produced at BARC. Cirus Reactor The 40 megawatt-thermal (MWth) Cirus reactor first went critical in 1960. This reactor, which was supplied by Canada, operated until 1997 when it shut down for major renovations because of aging problems. India considered building a new reactor to replace Cirus, but decided against that option for cost reasons. After extensive modification, the reactor restarted in October 2003 and reached full power in November 2004. Indian officials expect Cirus to last for about 15 more years. Dhruva Reactor The 100 MWth Dhruva reactor, which was developed indigenously, went critical in August 1985. Soon after starting operation, the reactor experienced severe vibrations in the reactor core and was shut down for modifications.
    [Show full text]