Nuclear Waste: Congressional Action Needed to Clarify a Disposal Option
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The Nuclear Waste Primer September 2016 What Is Nuclear Waste?
The Nuclear Waste Primer September 2016 What is Nuclear Waste? Nuclear waste is the catch-all term for anything contaminated with radioactive material. Nuclear waste can be broadly divided into three categories: • Low-level waste (LLW), comprised of protective clothing, medical waste, and other lightly-contaminated items • Transuranic waste (TRU), comprised of long-lived isotopes heavier than uranium • High-level waste (HLW), comprised of spent nuclear fuel and other highly-radioactive materials Low-level waste is relatively short-lived and easy to handle. Currently, four locations for LLW disposal exist in the United States. Two of them, Energy Solutions in Clive, Utah and Waste Control Specialists in Andrews, Texas, accept waste from any U.S. state. Transuranic waste is often a byproduct of nuclear weapons production and contains long-lived radioactive elements heavier than uranium, like plutonium and americium. Currently, the U.S. stores TRU waste at the Waste Isolation Pilot Plant (WIPP) near Carlsbad, New Mexico. High-level waste includes spent nuclear fuel and the most radioactive materials produced by nuclear weapons production. Yucca Mountain is the currently designated high-level waste repository for the United States. 1 | What is Spent Nuclear Fuel? Spent nuclear fuel (SNF), alternatively referred to as used nuclear fuel, is the primary byproduct of nuclear reactors. In commercial power reactors in the U.S., fuel begins as uranium oxide clad in a thin layer of zirconium-aluminum cladding. After several years inside of the reactor, around fi ve percent of the uranium has been converted in some way, ranging from short-lived and highly radioactive fi ssion products to long-lived actinides like plutonium, americium, and neptunium. -
NUCLEAR Unwasted NUCLEAR Unwasted NEWS
N ational Conference of State Legislatures NUCLEAR unWASTEd NEWS A QUARTERLY S UMMARY OF GENERATION, TRANSPORTATION, STORAGE AND DISPOSAL ISSUES JANUARY - MARCH 2008 V OL. 3, NO . 1 Headline CRS Report Assesses Global Access to Nuclear Power 2/29 With the heralding of a coming nuclear renaissance in the Energy Policy Act of 2005 and the Bush administration’s Global Nuclear Energy Partnership (GNEP), the Congressional Research Service released a report in January titled, Managing the Nuclear Fuel Cycle: Policy Implications of Expanding Global Access to Nuclear Power. The 2005 Energy Policy Act outlined provisions authorizing streamlined licensing for new nuclear plants, combining construction and operating permits, and providing tax credits for nuclear power. Thirty new applications or early site permits for reactors have been filed with the Nuclear Regulatory Commission, and 150 have been planned or proposed globally. Nearly a dozen are already under construction overseas. With the U.S. Department of Energy (DOE) planning to spend billions of dollars to advance nuclear technology in the U.S., other countries have similar ideas and want access to the benefits of nuclear power. Advances in nuclear technologies are attractive to those who seek to add energy options to the mostly fossil fuel genera- tion the world depends on today. Concerns about climate change, however, are complicated by fears that spreading enrichment and reprocessing technologies may lead to proliferation of weapons-grade nuclear material. Proposals of global access to nuclear power range from: offering countries access to nuclear power with a formal commit- ment to abstain from enrichment and reprocessing; to a de facto approach where a country does not operate fuel cycle facilities but makes no direct commitment to other nations; to nations having no restrictions at all. -
Ards for the Uranium Fuel Cycle PART 191—ENVIRONMENTAL RADI
§ 190.10 40 CFR Ch. I (7–1–11 Edition) period in which he is engaged in car- ance, and the schedule for achieving rying out any operation which is part conformance with the standards. of a nuclear fuel cycle. (l) Regulatory agency means the gov- § 190.12 Effective date. ernment agency responsible for issuing (a) The standards in § 190.10(a) shall regulations governing the use of be effective December 1, 1979, except sources of radiation or radioactive ma- that for doses arising from operations terials or emissions therefrom and car- associated with the milling of uranium rying out inspection and enforcement ore the effective date shall be Decem- activities to assure compliance with ber 1, 1980. such regulations. (b) The standards in § 190.10(b) shall be effective December 1, 1979, except Subpart B—Environmental Stand- that the standards for krypton-85 and ards for the Uranium Fuel iodine-129 shall be effective January 1, Cycle 1983, for any such radioactive materials generated by the fission process after § 190.10 Standards for normal oper- these dates. ations. Operations covered by this subpart PART 191—ENVIRONMENTAL RADI- shall be conducted in such a manner as ATION PROTECTION STANDARDS to provide reasonable assurance that: FOR MANAGEMENT AND DIS- (a) The annual dose equivalent does POSAL OF SPENT NUCLEAR FUEL, not exceed 25 millirems to the whole body, 75 millirems to the thyroid, and HIGH-LEVEL AND TRANSURANIC 25 millirems to any other organ of any RADIOACTIVE WASTES member of the public as the result of exposures to planned discharges of ra- Subpart A—Environmental Standards for dioactive materials, radon and its Management and Storage daughters excepted, to the general en- Sec. -
5. Production, Import/Export, Use, and Disposal
IODINE 227 5. PRODUCTION, IMPORT/EXPORT, USE, AND DISPOSAL 5.1 PRODUCTION Iodine, a halogen, occurs in low concentrations in nature in the form of iodides mainly in sea water, although there are a number of major sources iodine including the underground waters from certain deep- well boring and mineral springs (i.e., brines) and natural deposits of sodium nitrate ore (i.e., caliche) found in the northern part of Chile. Only a few marine organisms contain iodine in relatively large quantities including seaweeds, sponges, and corals. The different production processes for recovering iodine are based on the raw materials used. Approximately 54% of the iodine consumed in the world is obtained from Chile as a coproduct from surface mineral deposits used to produce nitrate fertilizers (USGS 2002). About 43% of the iodine consumed in the world comes from brines processed in Japan, the United States, and the former Soviet Union. The primary production process for recovery of iodine from brines is the blow-out process. The blow-out process for brines can be divided into brine clean-up, iodide oxidation followed by air blowing and recovery, and iodine finishing. In 2001, iodine was recovered from brines by the blow-out process by three companies operating in Oklahoma, which accounted for 100% of the U.S. elemental iodine production. These three companies are IOCHEM Corporation (Dewey County, Oklahoma), North American Brine Resources (Dover, Oklahoma), and Woodward Iodine Corporation (Woodward County, Oklahoma). Production of iodine in the United States has remained steady ranging from 1,270 to 1,620 metric tons between the years 1996 and 2000 (Lauterbach and Ober 1995; USGS 1998, 2002). -
NNSA Should Clarify Long-Term Uranium Enrichment Mission Needs and Improve Technology Cost Estimates
United States Government Accountability Office Report to Congressional Committees February 2018 NUCLEAR WEAPONS NNSA Should Clarify Long-Term Uranium Enrichment Mission Needs and Improve Technology Cost Estimates GAO-18-126 February 2018 NUCLEAR WEAPONS NNSA Should Clarify Long-Term Uranium Enrichment Mission Needs and Improve Technology Cost Highlights of GAO-18-126, a report to Estimates congressional committees Why GAO Did This Study What GAO Found NNSA has several mission needs for The National Nuclear Security Administration (NNSA), a separately organized enriched uranium, including providing agency within the Department of Energy (DOE), is taking or plans to take four LEU to fuel a nuclear reactor that actions to extend inventories of low-enriched uranium (LEU) that is unobligated, produces tritium—a key isotope used or carries no promises or peaceful use to foreign trade partners until about 2038 in nuclear weapons. NNSA has a to 2041. Two of the actions involve preserving supplies of LEU, and the other pressing defense need for unobligated two involve diluting highly enriched uranium (HEU) with lower enriched forms of LEU to fuel this reactor, meaning the uranium to produce LEU. GAO reviewed these actions and found the actual uranium, technology and equipment costs and schedules for those taken to date generally align with estimates. used to produce the LEU, must be U.S. NNSA and GAO have identified risks associated with two of these actions. One in origin. Because the United States of these risks has been resolved; NNSA is taking steps to mitigate another, while lost its only source of unobligated LEU production in 2013, the supply is finite. -
Federal Register/Vol. 86, No. 145/Monday, August 2, 2021/Notices
41540 Federal Register / Vol. 86, No. 145 / Monday, August 2, 2021 / Notices DEPARTMENT OF COMMERCE III. Investigation Process Producers Will Face Increasing Import A. Initiation of Investigation Competition Bureau of Industry and Security B. Public Comments VIII. Conclusion C. Site Visits and Information Gathering A. Determination RIN 0694–XC078 Activities B. Economic Impacts of 25 Percent U.S.- D. Interagency Consultation Origin Requirement Publication of a Report on the Effect of E. Review of the Department of Commerce C. Public Policy Proposals Imports of Uranium on the National 1989 Section 232 Investigation on Security: An Investigation Conducted Uranium Imports Appendices Under Section 232 of the Trade IV. Product Scope of the Investigation Appendix A: Section 232 Investigation Expansion Act of 1962, as Amended V. Background on the U.S. Nuclear Industry Notification Letter to Secretary of Defense A. Summary of the U.S. Uranium Fuel James Mattis, July 18, 2018 AGENCY: Bureau of Industry and Cycle Appendix B: Federal Register Notices— Security, Commerce. B. Summary of U.S. Nuclear Power Notice of Requests for Public Comments on Generation Industry ACTION: Publication of a report. Section 232 National Security Investigation VI. Global Uranium Market Conditions of Imports of Uranium, July 25, 2018; SUMMARY: The Bureau of Industry and A. Summary of the Global Uranium Market Change in Comment Deadline for Section Security (BIS) in this notice is B. Uranium Transactions: Book Transfers 232 National Security Investigation of and Flag Swaps publishing a report that summarizes the Imports of Uranium, September 10, 2018 C. The Effect of the Fukushima Daiichi Appendix C: Summary of Public Comments findings of an investigation conducted Incident on U.S. -
Global Fissile Material Report 2006 a Table of Contents
IPF M Global Fis sile Material Report Developing the technical basis for policy initiatives to secure and irreversibly reduce stocks of nuclear weapons and fissile materials 2006 Over the past six decades, our understanding of the nuclear danger has expanded from the threat posed by the vast nuclear arsenals created by the super- powers in the Cold War to encompass the prolifera- tion of nuclear weapons to additional states and now also to terrorist groups. To reduce this danger, it is essential to secure and to sharply reduce all stocks of highly enriched uranium and separated plutonium, the key materials in nuclear weapons, and to limit any further production. The mission of the IPFM is to advance the technical basis for cooperative international policy initiatives to achieve these goals. A report published by Global Fissile The International Panel on Fissile Materials (IPFM) www.fissilematerials.org Program on Science and Global Security Princeton University Material Report 2006 221 Nassau Street, 2nd Floor Princeton, NJ 08542, USA First report of the International Panel on Fissile Materials First report of the International Panel on Fissile Materials Developing the Technical Basis for Policy Initiatives to Secure and Irreversibly Reduce Stocks of Nuclear Weapons and Fissile Materials www.fissilematerials.org Global Fissile Material Report 2006 a Table of Contents About the IPFM 1 Summary 2 I. Background 5 1 Fissile Materials and Nuclear Weapons 6 2 Nuclear-Weapon and Fissile-Material Stocks 12 3 Production and Disposition of Fissile -
Nuclear-Spent Fuel and High-Level Radioactive Waste Disposal Preface and Acknowledgments 5
Nuclear-Spent Science Matters, LLC Science Matters, Bethesda, Maryland Fuel and High-Level Radioactive December 2019 Waste Disposal A Review of Options Considered in the United States An independent report Deepcommissioned Inc. Isolation, by Arjun Makhijani, Ph.D. Table of Contents Preface and Acknowledgments 4 Executive Summary 8 i. Early considerations 9 ii. The 1980 Environmental Impact Statement and geologic disposal 11 iii. Retrospective on the geologic disposal decision 13 iv. The 1982 Nuclear Waste Policy Act 14 v. The Continued Storage Rule 15 vi. Conclusions 16 I. From the 1950s to the mid-1970s 18 i. The 1957 National Research Council Report 20 ii. Lyons, Kansas 26 II. The changing framework in the 1970s 33 i. The energy front 34 ii. A change in nuclear power prospects 35 iii. The Indian nuclear test 38 III. Options for spent-fuel and high-level waste disposal 41 i. Transmutation 45 ii. Disposal in space 48 iii. Ice-sheet disposal 54 iv. Sub-seabed disposal 58 v. Island disposal 61 vi. Well injection 61 vii. Rock melt 64 viii. Disposal in very deep holes 66 ix. Disposal in a mined geologic repository 69 IV. Retrospective on disposal options 78 i. Breeder reactors and reprocessing 80 ii. Reprocessing-dependent disposal approaches 83 iii. Non-reprocessing dependent disposal concepts 88 iv. Deep-vertical borehole disposal 93 v. Horizontal borehole disposal 95 V. The Nuclear Waste Policy Act 98 VI. The NRC’s Continued Storage Rule and geologic isolation 106 i. The Continued Storage Rule 107 ii. Comments on continued storage and geologic isolation 108 VII. -
Quantities of Fissile Materials in US and Soviet
Quantities of Fissile Materials in --US and Soviet ~uclearWeapons Arsenals * Frank von Hippel David H. ~lbri~ht+ Barbara G. Levi PU/CEES Report No. 168 July 1986 * Also Woodrow Wilson School of Public and International Affairs, Princeton University . + Also Federation of American Scientists, 307 Massachusetts Ave. N.E., Washington, DC 20002. Center for Energy and Environmental Studies The Engineering Quadrangle Princeton University Princeton, NJ 08544 TABLE OF CONTENTS a I. INTRODUCTION 11. US STOCKPILE OF WEAPON-GRADE URANIUM 111. US STOCKPILE OF WEAPON-GRADE PLUTONIUM a IV. DISPOSITION OF THE US GOVERNMENT'S STOCKPILE OF NATURAL URANIUM V. SOVIET STOCKPILE OF PLUTONIUM I. INTRODUCTION --TABLE OF CONTENTS History of the Proposal to Cut Off the Production of Fissile Material for Nuclear Weapons a The Verifiability of a Fissile Cutoff The Importance of Knowing the Amounts of Fissile Materials Already in the Nuclear Arsenals 2 REFERENCES Table 1-1. The Amounts of Fissile Material in the US Weapons Stockpile and An Upper-Bound Estimate of the Amount of Separated Plutonium in the USSR I. INTRODUCTION History of the Proposal to Cut Off the Production -of Fissile Material for Nuclear Weapons Although the original nuclear weapons control proposals such as the 1946 Baruch Plan - focused on the control of nuclear weapons materials, recent arms control negotiations have focused principally on the control of long-range nuclear weapons delivery systems. This has been in part due to the shift in the focus of the nuclear arms race from the quantitative to the qualitative. In part also it resulted from the Soviet Union's reluctance to allow intrusive verification arrangements. -
Externalities As the Status Quo: Federal Application of Environmental Charges in the United States
Michigan Technological University Digital Commons @ Michigan Tech Dissertations, Master's Theses and Master's Reports 2020 Externalities as the Status Quo: Federal Application of Environmental Charges in the United States Robert Zupko Michigan Technological University, [email protected] Copyright 2020 Robert Zupko Recommended Citation Zupko, Robert, "Externalities as the Status Quo: Federal Application of Environmental Charges in the United States", Open Access Master's Report, Michigan Technological University, 2020. https://doi.org/10.37099/mtu.dc.etdr/1052 Follow this and additional works at: https://digitalcommons.mtu.edu/etdr Part of the Environmental Law Commons, and the Environmental Studies Commons EXTERNALITIES AS THE STATUS QUO: FEDERAL APPLICATION OF ENVIRONMENTAL CHARGES IN THE UNITED STATES By Robert J. Zupko II A REPORT Submitted in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE In Environmental and Energy Policy MICHIGAN TECHNOLOGICAL UNIVERSITY 2020 © 2020 Robert J. Zupko II This report has been approved in partial fulfillment of the requirements for the Degree of MASTER OF SCIENCE in Environmental and Energy Policy Department of Social Sciences Report Advisor: Dr. Adam Wellstead Committee Member: Dr. Shan Zhou Committee Member: Dr. Audrey Mayer Department Chair: Dr. Hugh Gorman Contents Contents ............................................................................................................................. 3 Acknowledgements .......................................................................................................... -
Reinterpretation of High-Level Waste Subcommittee White Paper 1 I. INTRODUCTION a Federal Register Notice Was Published by the U
Reinterpretation of High-Level Waste Subcommittee White Paper I. INTRODUCTION A Federal Register notice was published by the U.S. Department of Energy (DOE) requesting public comment on the DOE’s definition of the statutory term “high-level radioactive waste”(HLW).1 Current definitions of HLW are set forth in the Atomic Energy Act (AEA) of 1954 and the Nuclear Waste Policy Act (NWPA) of 1982. DOE is requesting stakeholders submit comments on the HLW and non-HLW interpretation to explore waste disposition decisions. There is increased interest from stakeholders at Idaho National Laboratory (INL), Savannah River Site (SRS), and Hanford Site due to the large inventory of reprocessing waste managed as HLW at each site. A subcommittee was formed during the October 2018 meeting of the Idaho Cleanup Project (ICP) Citizens Advisory Board (CAB) to evaluate the HLW reinterpretation issue. The subcommittee was tasked to provide an overview to the CAB members on the DOE Request for Public Comment on the U.S. DOE Interpretation of HLW and develop recommendations for the reinterpretation of HLW with respect to the waste at INL. Recommendation development included review of various pertinent documents, some of which are discussed below, and verification of some factual information through relevant DOE representatives. The documents that we reviewed are presented in chronological order below. II. BACKGROUND a. Energy Communities Alliance September 2017 Report The Energy Communities Alliance (ECA) published a report titled, “Waste Disposition: A New Approach to DOE’s Waste Management Must Be Pursued”, in September 2017. The ECA report evaluates DOE’s environmental liability and risk from legacy waste cleanup efforts and waste management, specifically their management and classification of HLW throughout DOE sites. -
RETHINKING the CHALLENGE of HIGH-LEVEL NUCLEAR WASTE Strategic Planning for Defense High-Level Waste and Spent Fuel Disposal
RETHINKING THE CHALLENGE OF HIGH-LEVEL NUCLEAR WASTE Strategic Planning for Defense High-Level Waste and Spent Fuel Disposal Prepared by The Yakama Nation Russell Jim, Project Manager Robert Alvarez, Senior Scholar, Institute for Policy Studies Brian Barry, Environmental Scientist Sponsored by a Grant from the Citizens’ Monitoring and Technical Assessment Fund RESOLVE, Inc. Grant Number: MTA-05-001 1 RETHINKING THE CHALLENGE OF HIGH-LEVEL NUCLEAR WASTE Strategic Planning for Defense High-Level Waste and Spent Fuel Disposal May 10, 2007 I. Nuclear Waste Disposal Challenges Recognizing that spent nuclear fuel and high level radioactive waste is among the planet’s most dangerous material, Congress passed the Nuclear Waste Policy Act (NWPA) in 1982. The law required all such nuclear waste to be disposed of in a deep geologic repository so as to protect humans for at least hundreds of millennia. Under the Act, intact spent fuel rods from power reactors were to be sent directly to a repository -- a “once through” nuclear fuel cycle. High level waste from nuclear weapons production, much of which requires processing before disposal, was also designated for permanent burial deep underground. Twenty-five years after the NWPA was signed into law, the government's nuclear waste disposal program is being impacted by legal challenges, technical problems, scandal and congressional funding cuts. The Department of Energy is in the midst of yet another contentious impasse over the disposal of commercial spent nuclear fuel. Legal and policy uncertainty have left the high level waste disposal program with uncertain goals and diminishing prospects for success. Delays in deciding the scientific feasibility of permanent disposal at the Yucca Mountain site in Nevada continue.