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WHAT WILL ADVANCED NUCLEAR POWER PLANTS COST? a Standardized Cost Analysis of Advanced Nuclear Technologies in Commercial Development
WHAT WILL ADVANCED NUCLEAR POWER PLANTS COST? A Standardized Cost Analysis of Advanced Nuclear Technologies in Commercial Development AN ENERGY INNOVATION REFORM PROJECT REPORT PREPARED BY THE ENERGY OPTIONS NETWORK TABLE OF CONTENTS Executive Summary 1 1. Study Motivation and Objectives 6 Why Care about Advanced Nuclear Costs? 7 Origins of This Study 8 A Standardized Framework for Cost Analysis 8 2. Results 9 3. Study Methodology 14 EON Model 15 Company Preparedness and Strategies 19 Limits of This Analysis 20 Certainty Levels for Advanced Nuclear Cost Estimates 20 Realistic Considerations That May Influence Cost 21 4. Advanced Nuclear’s Design and Delivery Innovations 22 Context: The Cost of Conventional Nuclear 23 Design Considerations for Conventional Nuclear Reactors 24 Safety Enhancements of Advanced Nuclear 24 Overview of Reactor Designs 25 Delivery Issues with Conventional Nuclear Power 27 Innovations in the Delivery of Advanced Nuclear Technologies 28 Design Factors That Could Increase Advanced Nuclear Costs 30 5. Conclusions 31 6. References 32 Appendix A: Nuclear Plant Cost Categories 34 Appendix B: Operating Costs for a Nuclear Plant 35 Appendix C: Cost Category Details and Modeling Methodology 36 Appendix D: External Expert Review of Draft Report 43 THE FUTURE OF NUCLEAR TECHNOLOGY: A STANDARDIZED COST ANALYSIS EXECUTIVE SUMMARY Advanced nuclear technologies are controversial. Many people believe they could be a panacea for the world’s energy problems, while others claim that they are still decades away from reality and much more complicated and costly than conventional nuclear technologies. Resolving this debate requires an accurate and current understanding of the increasing movement of technology development out of national nuclear laboratories and into private industry. -
A Comparison of Advanced Nuclear Technologies
A COMPARISON OF ADVANCED NUCLEAR TECHNOLOGIES Andrew C. Kadak, Ph.D MARCH 2017 B | CHAPTER NAME ABOUT THE CENTER ON GLOBAL ENERGY POLICY The Center on Global Energy Policy provides independent, balanced, data-driven analysis to help policymakers navigate the complex world of energy. We approach energy as an economic, security, and environmental concern. And we draw on the resources of a world-class institution, faculty with real-world experience, and a location in the world’s finance and media capital. Visit us at energypolicy.columbia.edu facebook.com/ColumbiaUEnergy twitter.com/ColumbiaUEnergy ABOUT THE SCHOOL OF INTERNATIONAL AND PUBLIC AFFAIRS SIPA’s mission is to empower people to serve the global public interest. Our goal is to foster economic growth, sustainable development, social progress, and democratic governance by educating public policy professionals, producing policy-related research, and conveying the results to the world. Based in New York City, with a student body that is 50 percent international and educational partners in cities around the world, SIPA is the most global of public policy schools. For more information, please visit www.sipa.columbia.edu A COMPARISON OF ADVANCED NUCLEAR TECHNOLOGIES Andrew C. Kadak, Ph.D* MARCH 2017 *Andrew C. Kadak is the former president of Yankee Atomic Electric Company and professor of the practice at the Massachusetts Institute of Technology. He continues to consult on nuclear operations, advanced nuclear power plants, and policy and regulatory matters in the United States. He also serves on senior nuclear safety oversight boards in China. He is a graduate of MIT from the Nuclear Science and Engineering Department. -
Small Modular Reactors – Key to Future Nuclear Power Generation in the U.S.1,2
Small Modular Reactors – Key to Future Nuclear Power Generation in the U.S.1,2 Robert Rosner and Stephen Goldberg Energy Policy Institute at Chicago The Harris School of Public Policy Studies Contributor: Joseph S. Hezir, Principal, EOP Foundation, Inc. Technical Paper, Revision 1 November, 2011 1 The research described in this paper was funded by the U.S. DOE through Argonne National Laboratory, which is operated by UChicago Argonne, LLC under contract No. DE-AC02-06CH1357. This report was prepared as an account of work sponsored by the United States Department of Energy. Neither the United States Government nor any agency thereof, nor the University of Chicago, 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 the institutional opinions of the University of Chicago. 2 This paper is a major update of an earlier paper, July 2011. This -
Fundamentals of Nuclear Power
Fundamentals of Nuclear Power Juan S. Giraldo Douglas J. Gotham David G. Nderitu Paul V. Preckel Darla J. Mize State Utility Forecasting Group December 2012 Table of Contents List of Figures .................................................................................................................................. iii List of Tables ................................................................................................................................... iv Acronyms and Abbreviations ........................................................................................................... v Glossary ........................................................................................................................................... vi Foreword ........................................................................................................................................ vii 1. Overview ............................................................................................................................. 1 1.1 Current state of nuclear power generation in the U.S. ......................................... 1 1.2 Nuclear power around the world ........................................................................... 4 2. Nuclear Energy .................................................................................................................... 9 2.1 How nuclear power plants generate electricity ..................................................... 9 2.2 Radioactive decay ................................................................................................. -
Breakthrough Institute How to Make Nuclear Cheap
HOW TO MAKE NUCLEAR CHEAP July 2013 SAFET Y, READINESS, MODULARIT Y, and EFFICIENCY TED NORDHAUS, JESSICA LOVERING, AND MICHAEL SHELLENBERGER HOW TO MAKE NUCLEAR CHEAP SAFETY, READINESS, MODULARITY, and EFFICIENCY TED NORDHAUS, JESSICA LOVERING, AND MICHAEL SHELLENBERGER THE BREAKTHROUGH INSTITUTE | JULY 2013 ACKNOWLEDGMENTS The Breakthrough Institute would like to thank the following people for their contri - bu tions to this report. All opinions expressed herein are those of the Break through Institute and do not necessarily reflect the opinions of the individuals below. Joseph Chaisson, Research and Technical Director, Clean Air Task Force Armond Cohen, Executive Director, Clean Air Task Force Ashley Finan, Senior Project Manager for Energy Innovation, Clean Air Task Force Richard Lester, Japan Steel Industry Professor and Head of the Department of Nuclear Science and Engineering at the Massachusetts Institute of Technology Mark Lynas, journalist and visiting research associate, Oxford University’s School of Geography and the Environment Charles Peterson, Partner, Energy Section, Pillsbury Law Per Peterson, William and Jean McCallum Floyd Endowed Chair, Department 4 of Nuclear Engineering, University of California, Berkeley Burton Richter, Paul Pigott Professor in the Physical Sciences, Stanford University, and Director Emeritus at the Stanford Linear Accelerator Center Ray Rothrock, Partner, Venrock Jim Swartz, Accel Partners Special thanks to Brian Sergi for preliminary research performed during the 2012 Breakthrough Generation Fellowship program. About the Authors Ted Nordhaus and Michael Shellenberger are cofounders of the Breakthrough Institute, where they are Chairman and President, respectively. They are coauthors of Break Through: From the Death of Environmentalism to the Politics of Possibility as well as dozens of essays and reports on energy, climate change, and the environment. -
Preliminary Quantitative Feasibility Analysis of Proposed Thorium-Based Nuclear Reactor
IOP Conference Series: Materials Science and Engineering PAPER • OPEN ACCESS Preliminary quantitative feasibility analysis of proposed Thorium-based nuclear reactor To cite this article: Anas Muhamad Pauzi et al 2019 IOP Conf. Ser.: Mater. Sci. Eng. 555 012006 View the article online for updates and enhancements. This content was downloaded from IP address 43.130.79.121 on 08/10/2021 at 08:30 International Nuclear Science, Technology and Engineering Conference 2018 IOP Publishing IOP Conf. Series: Materials Science and Engineering 555 (2019) 012006 doi:10.1088/1757-899X/555/1/012006 Preliminary quantitative feasibility analysis of proposed Thorium-based nuclear reactor Anas Muhamad Pauzi1,a), Azril Wasim Abdul Wahid1, Juniza Md Saad1 1College of Engineering, Universiti Tenaga Nasional, Jalan IKRAM-UNITEN, 43000 Kajang, Selangor, Malaysia [email protected] Abstract. In the beginning of the 21st century, several research institutions and also private companies had proposed various design of thorium-based nuclear reactor, ranging from solid fuel to molten fuel, fast and thermal neutron spectrum and also various path of waste management. This paper studies 10 of the proposed reactor designs by 10 different organizations, three key aspects analysed quantitatively namely price per kilowatt, safety features and spent fuel managements. Corresponding factors contributing to the key aspects mentioned above were gathered, weighted based on evidence available and analysed using decision matrix. Based on the information collected, preliminary ranking were constructed based on trends between various factors. 1. Introduction 1.1. Thorium reactor developer of the 21st century Thorium fuel reactor was first developed by the Oak Ridge National Laboratory (ORNL) in 1950s, under the Aircraft Reactor Experimental (ARE) by Alvin Weinberg, then director of ORNL. -
Two-Dimensional Neutronic and Fuel Cycle Analysis of the Transatomic Power Molten Salt Reactor
ORNL/TM-2016/742 Two-Dimensional Neutronic and Fuel Cycle Analysis of the Transatomic Power Molten Salt Reactor Benjamin R. Betzler, ORNL Jeffrey J. Powers, ORNL Andrew Worrall, ORNL Sean Robertson, TAP Leslie Dewan, TAP Mark Massie, TAP Approved for public release. Distribution is unlimited. January 15, 2017 DOCUMENT AVAILABILITY Reports produced after January 1, 1996, are generally available free via US Department of Energy (DOE) SciTech Connect. Website: http://www.osti.gov/scitech/ Reports produced before January 1, 1996, may be purchased by members of the public from the following source: National Technical Information Service 5285 Port Royal Road Springfield, VA 22161 Telephone: 703-605-6000 (1-800-553-6847) TDD: 703-487-4639 Fax: 703-605-6900 E-mail: [email protected] Website: http://www.ntis.gov/help/ordermethods.aspx Reports are available to DOE employees, DOE contractors, Energy Technology Data Ex- change representatives, and International Nuclear Information System representatives from the following source: Office of Scientific and Technical Information PO Box 62 Oak Ridge, TN 37831 Telephone: 865-576-8401 Fax: 865-576-5728 E-mail: [email protected] Website: http://www.osti.gov/contact.html 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 any of their employees, makes any warranty, express or implied, or assumes any legal lia- bility or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or rep- resents that its use would not infringe privately owned rights. -
A Big Future for Small Nuclear Reactors? Jack Spencer and Nicolas D
No. 2514 February 2, 2011 A Big Future for Small Nuclear Reactors? Jack Spencer and Nicolas D. Loris Abstract: More and more companies—in the U.S. and abroad—are investing in new commercial nuclear enter- prises, chief among them, small modular reactors (SMRs). Talking Points The SMR industry is growing, with many promising devel- • Small modular reactors (SMRs) represent an opments in the works—which is precisely why the govern- important development in the evolution of ment should not interfere, as subsidies and government commercial nuclear power in the United States. programs have already resulted in an inefficient system for • SMRs can be built in the United States and large reactors. Heritage Foundation nuclear policy experts could provide important competition in the explain how the future for small reactors can remain energy industry that will push technology for- bright. ward while driving prices lower. • Their lower up-front capital costs than tradi- tional nuclear power, scalability, and multi- functionality add to the benefits that attract Small modular reactors (SMRs) have garnered sig- investors. nificant attention in recent years, with companies of • Inefficient licensing and rulemaking, a failed all sizes investing in these smaller, safer, and more nuclear waste management policy, and too cost-efficient nuclear reactors. Utilities are even form- much federal government intervention are ing partnerships with reactor designers to prepare for creating barriers to the SMR progress. potential future construction. Perhaps most impres- • Most current attempts to promote SMR devel- sive is that most of this development is occurring opment rely on government bureaucrats and without government involvement. -
The Use of Small Modular Nuclear Reactors for Canadian Oil Sands Applications: a Proposal and Way Forward
The use of Small Modular Nuclear Reactors for Canadian Oil Sands Applications: A proposal and way forward By Dennis Attwood, P.Eng, Ph.D Principal, Human Factors Applications and Mohamed Moledina Senior Nuclear Engineer, Nuclear Energy Business Unit WorleyParsons Resources & Energy Canada 1. ABSTRACT It has been estimated that Canada’s Oil Sands contain between 160 and 200 billion barrels of oil reserves – the second largest accumulation of oil in the world after Saudi Arabia. It is also estimated that by 2015, output from the oil sands should increase from about 1 million barrels per day (mbbl/day)to approximately 4 mbbl/day. However, Canada and the world have to pay a price for oil extraction from the sands.It is estimated that about 40 cubic metres of natural gas as fuel must be burned for each barrel of synthetic crude produced. Therefore, if oil sands production did reach 4 mbbl/day,natural gas use for oil production could seriously limit exports of natural gas to the US. It has also been estimated that every barrel of synthetic oil pollutes about 950 litersof fresh water and emits about 100 Kg of Carbon Dioxode (CO2)along with other pollutants. Clearly an alternate source of energy is required for oil sands production that will allow our natural gas to be put to better use while simultaneously sustaining our environment. The energy must be continuously obtainable and not be subject to the intermittentavailability of wind or sunlight. Nuclear energy is the obvious choice. Nuclear energy for power generation has been prevalently used around the world since the 1950’s. -
“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 -
Utah Thorium Energy and Medical Isotopes
Utah Thorium Energy and Medical Isotopes Dr. Matthew J Memmott Brigham Young University November 16th 2016 2 Utah Winters… 3 Why Nuclear? • Massive Energy – 10,000,000 times chemical – 1 Uranium Pellet ( 7 gm): • 3.5 barrels of oil • 17,000 scf natural gas • 1800 lbs coal – Reliable • ~92% Capacity factor – Clean – No emissions! – Medicine • 99Mo, 131I, etc. – only come from nuclear reactors! 4 Widespread Uses • Medicine • 20M procedures a year in US – X-rays – Cancer Treatments – Diagnostics (PET, MRI, CTS) • Energy • 20% of the US electricity • No emissions • Lowest Death Rate Annual Death rates per TW*hr US Electricity • Reliable – runs 343 days/year Source Deaths Percentage Coal 161 39% Oil 36 1% • Research Natural Gas 4 27% Biofuel/Biomass 12 1.70% • Manufacturing Solar 0.83 0.40% Wind 0.15 4.40% Hydro 1.4 6% Nuclear 0.04 20% 5 Targeted Alpha Therapy 6 Two Nuclear Pathways • Light Water Reactor – Modified sub reactor – Requires lots of water – Pressurized – Weapons path - Pu • Molten Salt Reactor – No solid fuel – No high pressure – Coolant is Fl-Li-Be – No Weapons – 5-10 years operation 7 Molten Salt Reactor • Silicone chip vs. vacuum tube • 800+ ˚C • 44% efficiency • Medical isotopes AND electricity concurrently • Solves 3 nuclear problems 8 Safety 9 Waste 10 Reduce Proliferation Risk • Must produce (and gather) 241Pu, 239Pu, 235U, or 233U – 241Pu, 239Pu are never formed – 235U in very small amounts, rapidly fissioned – Lots of 233U, but • 233U is mixed with 232U • 232U is active gamma emitter • Gammas ruin bombs: – Harmful to handle -
History, Background, and Current MSR Developments
Module 1: History, Background, and Current MSR Developments Presentation on Molten Salt Reactor Technology by: David Holcomb, Ph.D. Advanced Reactor Systems and Safety Reactor and Nuclear Systems Division Presentation for: US Nuclear Regulatory Commission Staff Washington, DC Date: November 7–8, 2017 ORNL is managed by UT-Battelle for the US Department of Energy Summary of Modules • Module 1 – History, Background, and Current MSR Developments – Introduction to MSRs, early development, current developers • Module 2 – Overview of MSR Technology and Concepts – System overviews, technical maturity • Module 3 – Overview of Fuel and Coolant Salt Chemistry and Thermal Hydraulics – Salt properties and characteristics • Module 4 – MSR Neutronics – Comparison with LWRs, reactivity feedback, challenges 2 Module 1 History, Background, and Current MSR Developments Summary of Modules (cont.) • Module 5 – Materials – Requirements, options, challenges • Module 6 – Systems and Components – Nuclear heat supply, heat transport, support systems, balance of plant • Module 7 – Overview of MSR Instrumentation – Key process parameters, support for automation, tritium monitoring, fissile material tracking • Module 8 – Fuel Cycle and Safeguards – Reactor technology, neutron spectrum, fundamental concepts 3 Module 1 History, Background, and Current MSR Developments Summary of Modules (cont.) • Module 9 – Operating Experience – Corrosion studies, OpE issues, remote handling, long-term storage • Module 10 – Safety Analysis and Design Requirements – MSR events, accident