Plutonium: the International Scene*
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Report: the New Nuclear Arms Race
The New Nuclear Arms Race The Outlook for Avoiding Catastrophe August 2020 By Akshai Vikram Akshai Vikram is the Roger L. Hale Fellow at Ploughshares Fund, where he focuses on U.S. nuclear policy. A native of Louisville, Kentucky, Akshai previously worked as an opposition researcher for the Democratic National Committee and a campaign staffer for the Kentucky Democratic Party. He has written on U.S. nuclear policy and U.S.-Iran relations for outlets such as Inkstick Media, The National Interest, Defense One, and the Quincy Institute’s Responsible Statecraft. Akshai holds an M.A. in International Economics and American Foreign Policy from the Johns Hopkins University SAIS as well as a B.A. in International Studies and Political Science from Johns Hopkins Baltimore. On a good day, he speaks Spanish, French, and Persian proficiently. Acknowledgements This report was made possible by the strong support I received from the entire Ploughshares Fund network throughout my fellowship. Ploughshares Fund alumni Will Saetren, Geoff Wilson, and Catherine Killough were extremely kind in offering early advice on the report. From the Washington, D.C. office, Mary Kaszynski and Zack Brown offered many helpful edits and suggestions, while Joe Cirincione, Michelle Dover, and John Carl Baker provided much- needed encouragement and support throughout the process. From the San Francisco office, Will Lowry, Derek Zender, and Delfin Vigil were The New Nuclear Arms Race instrumental in finalizing this report. I would like to thank each and every one of them for their help. I would especially like to thank Tom Collina. Tom reviewed numerous drafts of this report, never The Outlook for Avoiding running out of patience or constructive advice. -
Table 2.Iii.1. Fissionable Isotopes1
FISSIONABLE ISOTOPES Charles P. Blair Last revised: 2012 “While several isotopes are theoretically fissionable, RANNSAD defines fissionable isotopes as either uranium-233 or 235; plutonium 238, 239, 240, 241, or 242, or Americium-241. See, Ackerman, Asal, Bale, Blair and Rethemeyer, Anatomizing Radiological and Nuclear Non-State Adversaries: Identifying the Adversary, p. 99-101, footnote #10, TABLE 2.III.1. FISSIONABLE ISOTOPES1 Isotope Availability Possible Fission Bare Critical Weapon-types mass2 Uranium-233 MEDIUM: DOE reportedly stores Gun-type or implosion-type 15 kg more than one metric ton of U- 233.3 Uranium-235 HIGH: As of 2007, 1700 metric Gun-type or implosion-type 50 kg tons of HEU existed globally, in both civilian and military stocks.4 Plutonium- HIGH: A separated global stock of Implosion 10 kg 238 plutonium, both civilian and military, of over 500 tons.5 Implosion 10 kg Plutonium- Produced in military and civilian 239 reactor fuels. Typically, reactor Plutonium- grade plutonium (RGP) consists Implosion 40 kg 240 of roughly 60 percent plutonium- Plutonium- 239, 25 percent plutonium-240, Implosion 10-13 kg nine percent plutonium-241, five 241 percent plutonium-242 and one Plutonium- percent plutonium-2386 (these Implosion 89 -100 kg 242 percentages are influenced by how long the fuel is irradiated in the reactor).7 1 This table is drawn, in part, from Charles P. Blair, “Jihadists and Nuclear Weapons,” in Gary A. Ackerman and Jeremy Tamsett, ed., Jihadists and Weapons of Mass Destruction: A Growing Threat (New York: Taylor and Francis, 2009), pp. 196-197. See also, David Albright N 2 “Bare critical mass” refers to the absence of an initiator or a reflector. -
Chapter 4. CLASSIFICATION UNDER the ATOMIC ENERGY
Chapter 4 CLASSIFICATION UNDER THE ATOMIC ENERGY ACT INTRODUCTION The Atomic Energy Act of 1946 was the first and, other than its successor, the Atomic Energy Act of 1954, to date the only U.S. statute to establish a program to restrict the dissemination of information. This Act transferred control of all aspects of atomic (nuclear) energy from the Army, which had managed the government’s World War II Manhattan Project to produce atomic bombs, to a five-member civilian Atomic Energy Commission (AEC). These new types of bombs, of awesome power, had been developed under stringent secrecy and security conditions. Congress, in enacting the 1946 Atomic Energy Act, continued the Manhattan Project’s comprehensive, rigid controls on U.S. information about atomic bombs and other aspects of atomic energy. That Atomic Energy Act designated the atomic energy information to be protected as “Restricted Data” and defined that data. Two types of atomic energy information were defined by the Atomic Energy Act of 1954, Restricted Data (RD) and a type that was subsequently termed Formerly Restricted Data (FRD). Before discussing further the Atomic Energy Act of 1946 and its unique requirements for controlling atomic energy information, some of the special information-control activities that accompanied the research, development, and production efforts that led to the first atomic bomb will be mentioned. Realization that an atomic bomb was possible had a profound impact on the scientists who first became aware of that possibility. The implications of such a weapon were so tremendous that the U.S. scientists conducting the initial, basic research related to nuclear fission voluntarily restricted the publication of their scientific work in this area. -
Images of Nuclear Energy: Why People Feel the Way They Do Emotions and Ideas Are More Deeply Rooted Than Realized
SPECIAL REPORT Images of nuclear energy: Why people feel the way they do Emotions and ideas are more deeply rooted than realized by ^/ontroversy over nuclear energy, both bombs anxiety and anger. Even among pro-nuclear Spencer R. Weart and reactors, has been exceptionally durable and people, beneath the controlled language, there is violent, exciting more emotion and public a lot of anxiety, a lot of anger. And why not? protest than any other technology. A main reason After all, everyone has heard that nuclear is that during the 20th century, nuclear energy weapons can blow up the world — or maybe gradually became a condensed symbol for many deter those who would blow it up. With nuclear features of industrial and bureucratic authority reactors, too, everyone agrees they are immense- (especially the horrors of modern war). ly important. They will save us from the global Propagandists found nuclear energy a useful disasters of the Greenhouse Effect — or perhaps symbol because it had become associated with they will poison all our posterity. potent images: not only weapons, but also un- Most of us take for granted these intensely canny scientists with mysterious rays' and mutant emotional ideas; we suppose the ideas flow from monsters; technological Utopia or universal the nature of the bombs and reactors themselves. doom; and even spiritual degradation or rebirth. But I have come to feel uneasy about this over These images had archaic connections stretching the years doing historical research on nuclear back to alchemical visions of transmutation. energy. The fact is, emotions came first, and the Decades before fission was discovered, the im- powerful devices themselves came later. -
Nuclear Energy: Fission and Fusion
CHAPTER 5 NUCLEAR ENERGY: FISSION AND FUSION Many of the technologies that will help us to meet the new air quality standards in America can also help to address climate change. President Bill Clinton 1 Two distinct processes involving the nuclei of atoms can be harnessed, in principle, for energy production: fission—the splitting of a nucleus—and fusion—the joining together of two nuclei. For any given mass or volume of fuel, nuclear processes generate more energy than can be produced through any other fuel-based approach. Another attractive feature of these energy-producing reactions is that they do not produce greenhouse gases (GHG) or other forms of air pollution directly. In the case of nuclear fission—a mature though controversial energy technology—electricity is generated from the energy released when heavy nuclei break apart. In the case of nuclear fusion, much work remains in the quest to sustain the fusion reactions and then to design and build practical fusion power plants. Fusion’s fuel is abundant, namely, light atoms such as the isotopes of hydrogen, and essentially limitless. The most optimistic timetable for fusion development is half a century, because of the extraordinary scientific and engineering challenges involved, but fusion’s benefits are so globally attractive that fusion R&D is an important component of today’s energy R&D portfolio internationally. Fission power currently provides about 17 percent of the world’s electric power. As of December 1996, 442 nuclear power reactors were operating in 30 countries, and 36 more plants were under construction. If fossil plants were used to produce the amount of electricity generated by these nuclear plants, more than an additional 300 million metric tons of carbon would be emitted each year. -
Rulemaking for Enhanced Security of Special Nuclear Material
Rulemaking for Enhanced Security of Special Nuclear Material RIN number: 3150-AJ41 NRC Docket ID: NRC-2014-0118 Regulatory Basis Document January 2015 Table of Contents 1. Introduction and Background .............................................................................................. 1 2. Existing Regulatory Framework .......................................................................................... 3 2.1 Regulatory History ............................................................................................................. 3 2.2 Existing Regulatory Requirements .................................................................................... 8 3. Regulatory Problem .......................................................................................................... 13 3.1 Generic Applicability of Security Orders .......................................................................... 13 3.2 Risk Insights .................................................................................................................... 16 3.3 Consistency and Clarity .................................................................................................. 27 3.4 Use of a Risk-Informed and Performance-Based Structure. ........................................... 29 4. Basis for Requested Changes ........................................................................................... 30 4.1 Material Categorization and Attractiveness ..................................................................... 30 4.2 -
The Development of Military Nuclear Strategy And
The Development of Military Nuclear Strategy and Anglo-American Relations, 1939 – 1958 Submitted by: Geoffrey Charles Mallett Skinner to the University of Exeter as a thesis for the degree of Doctor of Philosophy in History, July 2018 This thesis is available for Library use on the understanding that it is copyright material and that no quotation from the thesis may be published without proper acknowledgement. I certify that all material in this thesis which is not my own work has been identified and that no material has previously been submitted and approved for the award of a degree by this or any other University. (Signature) ……………………………………………………………………………… 1 Abstract There was no special governmental partnership between Britain and America during the Second World War in atomic affairs. A recalibration is required that updates and amends the existing historiography in this respect. The wartime atomic relations of those countries were cooperative at the level of science and resources, but rarely that of the state. As soon as it became apparent that fission weaponry would be the main basis of future military power, America decided to gain exclusive control over the weapon. Britain could not replicate American resources and no assistance was offered to it by its conventional ally. America then created its own, closed, nuclear system and well before the 1946 Atomic Energy Act, the event which is typically seen by historians as the explanation of the fracturing of wartime atomic relations. Immediately after 1945 there was insufficient systemic force to create change in the consistent American policy of atomic monopoly. As fusion bombs introduced a new magnitude of risk, and as the nuclear world expanded and deepened, the systemic pressures grew. -
PART I GENERAL PROVISIONS R12 64E-5.101 Definitions
64E-5 Florida Administrative Code Index PART I GENERAL PROVISIONS R12 64E-5.101 Definitions ................................................................................................. I-1 64E-5.102 Exemptions ............................................................................................. I-23 64E-5.103 Records ................................................................................................... I-24 64E-5.104 Tests ... ................................................................................................... I-24 64E-5.105 Prohibited Use ........................................................................................ I-24 64E-5.106 Units of Exposure and Dose ................................................................... I-25 64E-5 Florida Administrative Code Index 64E-5 Florida Administrative Code Index PART II LICENSING OF RADIOACTIVE MATERIALS R2 64E-5.201 ...... Licensing of Radioactive Material .............................................................. II-1 64E-5.202 ...... Source Material - Exemptions .................................................................... II-2 R12 64E-5.203 ...... Radioactive Material Other than Source Material - Exemptions ................. II-4 SUBPART A LICENSE TYPES AND FEES R12 64E-5.204 ..... Types of Licenses ..................................................................................... II-13 SUBPART B GENERAL LICENSES 64E-5.205 ..... General Licenses - Source Material ......................................................... -
Toxicological Profile for Plutonium
PLUTONIUM 1 1. PUBLIC HEALTH STATEMENT This public health statement tells you about plutonium and the effects of exposure to it. The Environmental Protection Agency (EPA) identifies the most serious hazardous waste sites in the nation. These sites are then placed on the National Priorities List (NPL) and are targeted for long-term federal clean-up activities. Plutonium has been found in at least 16 of the 1,689 current or former NPL sites. Although the total number of NPL sites evaluated for this substance is not known, strict regulations make it unlikely that the number of sites at which plutonium is found would increase in the future as more sites are evaluated. This information is important because these sites may be sources of exposure and exposure to this substance may be harmful. When a substance is released from a large area, such as an industrial plant, or from a container, such as a drum or bottle, it enters the environment. This release does not always lead to exposure. You are normally exposed to a substance only when you come in contact with it. You may be exposed by breathing, eating, or drinking the substance, or by skin contact. However, since plutonium is radioactive, you can also be exposed to its radiation if you are near it. External exposure to radiation may occur from natural or man-made sources. Naturally occurring sources of radiation are cosmic radiation from space or radioactive materials in soil or building materials. Man- made sources of radioactive materials are found in consumer products, industrial equipment, atom bomb fallout, and to a smaller extent from hospital waste and nuclear reactors. -
Reference Values for Nuclear Criticality Safety
Nuclear Science ISBN 92-64-02333-X Reference Values for Nuclear Criticality Safety Homogeneous and Uniform UO2, “UNH”, PuO2 and “PuNH”, Moderated and Reflected by H2O A demonstration study by an Expert Group of the Working Party on Nuclear Criticality Safety for the OECD/NEA Nuclear Science Committee Final evaluation and report prepared by D. Mennerdahl (EMS, Sweden) Leading participants during the study W. Weber (GRS, Germany), Y. Naito (NAIS, Japan) and J. Anno (IRSN, France) Major organisations contributing with new calculation results EMS (Sweden), IPPE (Russia), IRSN (France), ORNL (US), Serco Ass. (UK) Reviewers of the final draft report include J.B. Briggs (INL), V. Rouyer (IRSN), S. Mitake (Japan), H. Okuno (Japan), Y. Rugama (OECD/NEA), R.M. Westfall (ORNL) © OECD 2006 NEA No. 5433 NUCLEAR ENERGY AGENCY ORGANISATION FOR ECONOMIC CO-OPERATION AND DEVELOPMENT ORGANISATION FOR ECONOMIC COOPERATION AND DEVELOPMENT The OECD is a unique forum where the governments of 30 democracies work together to address the economic, social and environmental challenges of globalisation. The OECD is also at the forefront of efforts to understand and to help governments respond to new developments and concerns, such as corporate governance, the information economy and the challenges of an ageing population. The Organisation provides a setting where governments can compare policy experiences, seek answers to common problems, identify good practice and work to co-ordinate domestic and international policies. The OECD member countries are: Australia, Austria, Belgium, Canada, the Czech Republic, Denmark, Finland, France, Germany, Greece, Hungary, Iceland, Ireland, Italy, Japan, Korea, Luxembourg, Mexico, the Netherlands, New Zealand, Norway, Poland, Portugal, the Slovak Republic, Spain, Sweden, Switzerland, Turkey, the United Kingdom and the United States. -
Re-Examining the Role of Nuclear Fusion in a Renewables-Based Energy Mix
Re-examining the Role of Nuclear Fusion in a Renewables-Based Energy Mix T. E. G. Nicholasa,∗, T. P. Davisb, F. Federicia, J. E. Lelandc, B. S. Patela, C. Vincentd, S. H. Warda a York Plasma Institute, Department of Physics, University of York, Heslington, York YO10 5DD, UK b Department of Materials, University of Oxford, Parks Road, Oxford, OX1 3PH c Department of Electrical Engineering and Electronics, University of Liverpool, Liverpool, L69 3GJ, UK d Centre for Advanced Instrumentation, Department of Physics, Durham University, Durham DH1 3LS, UK Abstract Fusion energy is often regarded as a long-term solution to the world's energy needs. However, even after solving the critical research challenges, engineer- ing and materials science will still impose significant constraints on the char- acteristics of a fusion power plant. Meanwhile, the global energy grid must transition to low-carbon sources by 2050 to prevent the worst effects of climate change. We review three factors affecting fusion's future trajectory: (1) the sig- nificant drop in the price of renewable energy, (2) the intermittency of renewable sources and implications for future energy grids, and (3) the recent proposition of intermediate-level nuclear waste as a product of fusion. Within the scenario assumed by our premises, we find that while there remains a clear motivation to develop fusion power plants, this motivation is likely weakened by the time they become available. We also conclude that most current fusion reactor designs do not take these factors into account and, to increase market penetration, fu- sion research should consider relaxed nuclear waste design criteria, raw material availability constraints and load-following designs with pulsed operation. -
Nuclear Regulatory Commission § 70.5
Nuclear Regulatory Commission § 70.5 section 51 of the act, determines to be intermediates, which are unsuitable for special nuclear material, but does not use in their present form, but all or include source material; or (2) any ma- part of which will be used after further terial artificially enriched by any of processing. the foregoing but does not include Strategic special nuclear material source material; means uranium-235 (contained in ura- Special nuclear material of low strategic nium enriched to 20 percent or more in significance means: the U235 isotope), uranium-233, or pluto- (1) Less than an amount of special nium. nuclear material of moderate strategic Transient shipment means a shipment significance as defined in paragraph (1) of nuclear material, originating and of the definition of strategic nuclear terminating in foreign countries, on a material of moderate strategic signifi- vessel or aircraft which stops at a cance in this section, but more than 15 United States port. grams of uranium-235 (contained in Unacceptable performance deficiencies uranium enriched to 20 percent or more mean deficiencies in the items relied in U-235 isotope) or 15 grams of ura- on for safety or the management meas- nium-233 or 15 grams of plutonium or ures that need to be corrected to en- the combination of 15 grams when com- sure an adequate level of protection as puted by the equation, grams = (grams defined in 10 CFR 70.61(b), (c), or (d). contained U-235) + (grams plutonium) + United States, when used in a geo- (grams U-233); or graphical sense, includes Puerto Rico (2) Less than 10,000 grams but more and all territories and possessions of than 1,000 grams of uranium-235 (con- the United States.