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Future of the Nuclear Security Environment in 2015: Proceedings of a Russian-U.S. Workshop (2009)
Committee on International Security and Arms Control (CISAC)

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. "NUCLEAR POWER OF FAST REACTORS: A NEW START." Future of the Nuclear Security Environment in 2015: Proceedings of a Russian-U.S. Workshop. Washington, DC: The National Academies Press, 2009.

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Future of the Nuclear Security Environment in 2015: Proceedings of a Russian—U.S. Workshop

underestimation of safety issues.

By the end of the 1980s, analysis of previous industry experience led N.A. Dollezhal Research and Development Institute for Power Engineering (NIKIET) physicists and designers, under the direction of the Director Evgeny Adamov, to abandon the ‘fast breeder’ in favor of the ‘fast reactor of natural safety’166 (BREST). Based on advances achieved since the 1950s–1960s, these physicists proceeded with engineering designs for the following:

  • equilibrium FR operation with breeding ratios (BR) of approximately 1 (the advantages of which were understood as early as the 1960s)

  • the use of nitride, rather than the oxide fuels used in the early FR (e.g. metal fuel used at ANL)

  • on-site dry reprocessing (Scientific Research Institute of Atomic Reactors; Idaho National Laboratory) instead of the aqueous process used in military applications

  • non-combustible, molten Pb coolants (based on experience with Pb-Bi for submarines) rather than Na

By the end of the 1990s, Minatom prepared the Nuclear Power Development Strategy and the technical basis for the Initiative of the Russian President at the United Nations with a brief political statement of objectives.167

Compared to other countries, Russia is better prepared to create a fast reactor capable of resolving fuel and energy problems. The technical and financial issues are manageable; more difficult to overcome are the negative connotations and unfavourable economics that came to prevail in the industry during the decades of stagnation.

Although a great deal of Pu has accumulated already and its breeding, in the short-term, will not be necessary, it will be difficult to move forward without revising the ‘fast breeder’ concept. This could be done by simple estimation, but it would be improper and inconclusive without referring first to the greatest primary source–Fermi.168

THE ORIGIN OF THE FAST BREEDER STEREOTYPE

In April 1944, the separation plant at Oak Ridge was not yet in operation, and in his first outline for fast reactor-based nuclear power Fermi decided against the energy-consuming and expensive separation of uranium isotopes. Fast reactors would not run on natural uranium, so he started with a parent graphite or heavy-water-moderated thermal reactor, which would rapidly consume uranium and produce little Pu. Then, as fast reactors were brought into operation, they would initially run on the Pu from these thermal reactors and then ‘multiply’ or ‘breed’ their own

166

Equivalent to ‘inherent safety’ extended to waste and proliferation. In the 1970s, Alvin Weinberg predicted a “moratorium” for construction of new nuclear power plants in the U.S. and later envisioned a new start of nuclear power with inherently safe nuclear plants; in reality, however, the whole effort was reduced to the development of “passive” reactor safety features. “Continuing the Nuclear Dialogue: Selected Essays,” American Nuclear Society, 1985.

167

United Nations Millennium Summit, 2000. For further information, see http://www.un.org/millennium/; accessed July 13, 2008.

168

Enrico Fermi, “Discussion on Breeding,” Scientific Works of Enrico Fermi [Russian translation], (Moscow: Nauka 1972), V. 2, pp. 220–224.

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Front Matter (R1-R14)
OVERVIEW OF U.S. - RUSSIAN PARTNERSHIP AND PERCEPTIONS OF THE THREAT ENVIRONMENT (1-2)
LEADERSHIP THROUGH PARTNERSHIP: A VISION FOR THE 2015 NUCLEAR SECURITY RELATIONSHIP BETWEEN THE UNITED STATES OF AMERICA AND THE RUSSIAN FEDERATION (3-12)
FUNDAMENTAL PRINCIPLES OF RUSSIAN – U.S. COOPERATION IN THE NUCLEAR ARENA: A REVIEW OF OPPORTUNITIES AND THREATS (13-26)
ACCUMULATED EXPERIENCE THROUGH LONG-TERM COOPERATION: APPLYING LESSONS LEARNED FROM U.S.-RUSSIAN MPC&A PROGRAMS (27-28)
THE EXPERIENCE OF RUSSIA AND THE UNITED STATES IN COOPERATION ON PROTECTION, CONTROL, AND ACCOUNTING OF NUCLEAR MATERIALS (29-36)
MATERIAL PROTECTION, CONTROL, AND ACCOUNTING:LESSONS LEARNED APPLIED TO UNITED STATES AND RUSSIAN NUCLEAR SECURITY COOPERATION IN 2015 (37-48)
THE KOLA TRAINING AND TECHNICAL CENTER OF THE RUSSIAN NAVY (49-56)
PARTNERSHIP IN THE GLOBAL CONTEXT OF THE 21ST CENTURY: A PERSPECTIVE FROM THE INTERNATIONAL ATOMIC ENERGY AGENCY (57-58)
ASSURANCES OF SUPPLY VS. PROLIFERATION: A NEW FRAMEWORK FOR NUCLEAR ENERGY (59-68)
FULL PARTNERSHIP: SHARING STRATEGIC, MANAGEMENT AND FINANCIAL RESPONSIBILITIES (69-70)
THE SALIENT NEED TO DEVELOP NEW APPROACHES TO ADDRESS NUCLEAR WEAPONS PROLIFERATION ISSUES (71-88)
MINIMIZING CIVIL HIGHLY ENRICHED URANIUM STOCKS BY 2015: A FORWARD-LOOKING ASSESSMENT OF U.S.-RUSSIAN COOPERATION (89-104)
COST-SHARING ARRANGEMENTS IN INTERNATIONAL SCIENCE AND TECHNOLOGY COOPERATION: THE CRDF EXPERIENCE (105-110)
A NUCLEAR RENAISSANCE: EXPANDING NUCLEAR ENERGY AND ASSOCIATED SECURITY CHALLENGES (111-112)
INTERNATIONAL URANIUM ENRICHMENT CENTER IN ANGARSK: A WAY TO ENSURE THE SECURITY OF NUCLEAR FUEL SUPPLY AND NON-PROLIFERATION (113-124)
NUCLEAR POWER OF FAST REACTORS: A NEW START (125-134)
LEGAL ASPECTS OF NEGOTIATION, ENTRY INTO FORCE, AND IMPLEMENTATION OF INTERNATIONAL AGREEMENTS OF THE RUSSIAN FEDERATION ON COOPERATION IN THE FIELD OF PEACEFUL USE OF NUCLEAR ENERGY (135-144)
PROSPECTS FOR RUSSIA-U.S. COOPERATION IN THE AREA OF NUCLEAR NON-PROLIFERATION IN THE CONTEXT OF PROBLEMS ARISING FROM A NUCLEAR POWER RENAISSANCE (145-150)
CREATIVE SOLUTIONS TO TOMORROW'S CHALLENGES: OPPORTUNITIES FOR BI-LATERAL AND MULTI-LATERAL COOPERATION (151-152)
NUCLEAR TERRORISM THREATS AND RESPONSES (153-162)
PUBLIC AND PRIVATE SECTOR PARTNERSHIP RELATIONSHIPS: FUNDAMENTAL ISSUES, PROMISING DIRECTIONS AND METHODS OF RUSSIAN-AMERICAN COLLABORATION IN THE FIELD OF NON-PROLIFERATION OF NUCLEAR WEAPONS (163-178)
U.S. AND RUSSIAN COLLABORATION IN THE AREA OF NUCLEAR FORENSICS (179-202)
MAXIMIZING U.S.-RUSSIAN NUCLEAR SECURITY COOPERATION IN 2015: LEGAL OBSTACLES AND OPPORTUNITIES (203-214)
NUCLEAR SECURITY AND NON-PROLIFERATION FOR THE COMING DECADES: COOPERATION IN A GLOBAL CONTEXT (215-216)
NUCLEAR NON-PROLIFERATION AND NUCLEAR ARMS CONTROL (217-228)
APPROACHES TO REDUCING THE RISK OF NUCLEAR MULTI-POLARITY (229-236)
NUCLEAR SECURITY IN 2015: THE CASE OF NORTH KOREA (237-244)
BUILDING PARTNERSHIP ON THE STRENGTH OFEXPERIENCE: TRENDS, PRIORITIES, AND TOOLS FOR CONTINUED RUSSIAN-U.S. COOPERATION (245-246)
BUILDING PARTNERSHIP ON THE STRENGTH OF EXPERIENCE: TRENDS, PRIORITIES, TOOLS FOR CONTINUED RUSSIAN-U.S. COOPERATION (247-254)
LIST OF ACRONYMS (255-260)
APPENDIX A: AGENDA (261-264)
APPENDIX B: PARTICIPANTS LIST (265-266)
APPENDIX C: JOINT NATIONAL ACADEMIES'/RUSSIAN ACADEMY OF SCIENCES' COMMITTEE BIOGRAPHIES (267-271)
APPENDIX D: JOINT STATEMENTS BY PRESIDENTS VLADIMIR V. PUTIN AND GEORGE W. BUSH AND INTERNATIONAL STATEMENTS ON NUCLEAR SECURITY (272-298)
APPENDIX E: AGREEMENT BETWEEN THE GOVERNMENT OF THE UNITED STATES OF AMERICA AND THE GOVERNMENT OF THE RUSSIAN FEDERATION FOR COOPERATION IN THE FIELD OF PEACEFUL USES OF NUCLEAR ENERGY (299-309)