Decommissioning Russia's Old Nuclear Power Reactors: Status
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Developing an Intergovernmental Nuclear Regulatory Organization
Developing an Intergovernmental Nuclear Regulatory Organization: Lessons Learned from the International Civil Aviation Organization, the International Maritime Organization, and the International Telecommunication Union Clarence Eugene Carpenter, Jr. Bachelor of Science in Mechanical Engineering, May 1988 Seattle University, Seattle, WA Master of Science in Technical Management, May 1997 The Johns Hopkins University, Baltimore, MD Master of Arts in International Science and Technology Policy, May 2009 The George Washington University, Washington, DC A Dissertation submitted to The Faculty of The Columbian College of Arts and Sciences of The George Washington University in partial fulfillment of the requirements for the degree of Doctor of Philosophy January 10, 2020 Dissertation directed by Kathryn Newcomer Professor of Public Policy and Public Administration The Columbian College of Arts and Sciences of The George Washington University certifies that Clarence Eugene Carpenter, Jr. has passed the Final Examination for the degree of Doctor of Philosophy as of November 26, 2019. This is the final and approved form of the dissertation. Developing an Intergovernmental Nuclear Regulatory Organization: Lessons Learned from the International Civil Aviation Organization, the International Maritime Organization, and the International Telecommunication Union Clarence Eugene Carpenter, Jr. Dissertation Research Committee: Kathryn Newcomer, Professor of Public Policy and Public Administration, Dissertation Director Philippe Bardet, Assistant Professor, -
Southeastern Kara Sea, Siberia)
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Electronic Publication Information Center in: Stein, R., Fahl, K., Fütterer, D.K. and Galimov, E. (eds.) (2003): Siberian River Run-Off in the Kara Sea: Characterization, Quantification, Variability and Environmental Significance. Proceedings in Marine Science, 6, 435-456. A Holocene marine pollen record from the northern Yenisei Estuary (southeastern Kara Sea, Siberia) Kraus, M.1, Matthiessen, J.1, and Stein, R.1 1Alfred Wegener Institute for Polar and Marine Research, Bremerhaven, Germany Abstract A 780 cm long sediment core from the northern Yenisei Estuary (southeastern Kara Sea) was analysed for pollen to reconstruct the Holocene vegetation and climate history of the coastal area of the Kara Sea region. The core shows a high and continuous deposition of sediments from 8900 yrs BP (9400 cal. BP) to ca. 600 yrs BP. A pronounced change of the lithology and the occurrence of marine to brackish water dinoflagellate cysts and molluscs indicate that the core location was reached by sea water at 8600 yrs BP (9200 cal. BP) when the global sea-level was approximately 30m below the present level. The depositional environment changed gradually from fluvial to estuarine conditions. Favourable climatic conditions with higher mean temperature than at present and a widespread occurrence of spruce in boreal forests in the hinterland prevailed between 8900 and 7400 yrs BP (9400 to 8300 cal. BP). Between 7400 and 5000 yrs BP (8300 to 5700 cal. BP), relatively stable warm climatic conditions were established. Sedges dominated fens and peat bogs were widespread in the coastal lowlands indicating high water saturation and moist climate conditions. -
Survey of Design and Regulatory Requirements for New Small Reactors, Contract No
Canadian Nuclear Safety Commission - R550.1 Survey of Design and Regulatory Requirements for New Small Reactors, Contract No. 87055-13-0356 Final Report - July 3, 2014 RSP-0299 Canadian Nuclear Safety Commission R550.1 Survey of Design and Regulatory Requirements for New Small Reactors, Contract No. 87055-13-0356 Final Report July 3, Released for Brian Gihm 0 Victor Snell Jim Sarvinis Milan Ducic 2014 Use Victor Snell Date Rev. Status Prepared By Checked By Approved By Approved By Client - CNSC H346105-0000-00-124-0002, Rev. 0 Page i © Hatch 2015 All rights reserved, including all rights relating to the use of this document or its contents. Canadian Nuclear Safety Commission - R550.1 Survey of Design and Regulatory Requirements for New Small Reactors, Contract No. 87055-13-0356 Final Report - July 3, 2014 Executive Summary The objectives of this report are to perform a design survey of small modular reactors (SMRs) with near-term deployment potential, with a particular emphasis on identifying their innovative safety features, and to review the Canadian nuclear regulatory framework to assess whether the current and proposed regulatory documents adequately address SMR licensing challenges. SMRs are being designed to lower the initial financing cost of a nuclear power plant or to supply electricity in small grids (often in remote areas) which cannot accommodate large nuclear power plants (NPPs). The majority of the advanced SMR designs is based on pressurized water reactor (PWR) technology, while some non-PWR Generation IV technologies (e.g., gas-cooled reactor, lead-cooled reactor, sodium-cooled fast reactor, etc.) are also being pursued. -
Integrity of Reactor Pressure Vessels in Nuclear Power Plants: Assessment of Irradiation Embrittlement Effects in Reactor Pressure Vessel Steels No
156 pages, 9mm IAEA Nuclear Energy Series IAEA Nuclear No. No. NP-T-3.11 No. No. Steels Vessel Pressure Reactor in Effects Embrittlement Irradiation of Assessment Plants: Power Nuclear in Vessels Pressure Reactor of Integrity IAEA Nuclear Energy Series No. NP-T-3.11 Basic Integrity of Reactor Principles Pressure Vessels in Nuclear Power Plants: Objectives Assessment of Irradiation Embrittlement Guides Effects in Reactor Pressure Vessel Steels Technical Reports INTERNATIONAL ATOMIC ENERGY AGENCY VIENNA ISBN 978–92–0–101709–3 ISSN 1995–7807 P1382_covI-IV.indd 1 2009-05-05 11:14:48 INTEGRITY OF REACTOR PRESSURE VESSELS IN NUCLEAR POWER PLANTS: ASSESSMENT OF IRRADIATION EMBRITTLEMENT EFFECTS IN REACTOR PRESSURE VESSEL STEELS The following States are Members of the International Atomic Energy Agency: AFGHANISTAN GUATEMALA OMAN ALBANIA HAITI PAKISTAN ALGERIA HOLY SEE PALAU ANGOLA HONDURAS PANAMA ARGENTINA HUNGARY PARAGUAY ARMENIA ICELAND PERU AUSTRALIA INDIA PHILIPPINES AUSTRIA INDONESIA POLAND AZERBAIJAN IRAN, ISLAMIC REPUBLIC OF PORTUGAL BANGLADESH IRAQ QATAR BELARUS IRELAND REPUBLIC OF MOLDOVA BELGIUM ISRAEL ROMANIA BELIZE ITALY RUSSIAN FEDERATION BENIN JAMAICA SAUDI ARABIA BOLIVIA JAPAN SENEGAL BOSNIA AND HERZEGOVINA JORDAN SERBIA BOTSWANA KAZAKHSTAN SEYCHELLES BRAZIL KENYA SIERRA LEONE BULGARIA KOREA, REPUBLIC OF SINGAPORE BURKINA FASO KUWAIT SLOVAKIA CAMEROON KYRGYZSTAN SLOVENIA CANADA LATVIA SOUTH AFRICA CENTRAL AFRICAN LEBANON SPAIN REPUBLIC LIBERIA SRI LANKA CHAD LIBYAN ARAB JAMAHIRIYA SUDAN CHILE LIECHTENSTEIN SWEDEN CHINA LITHUANIA -
Sources and Pathways 4.1
Chapter 4 Persistant toxic substances (PTS) sources and pathways 4.1. Introduction Chapter 4 4.1. Introduction 4.2. Assessment of distant sources: In general, the human environment is a combination Longrange atmospheric transport of the physical, chemical, biological, social and cultur- Due to the nature of atmospheric circulation, emission al factors that affect human health. It should be recog- sources located within the Northern Hemisphere, par- nized that exposure of humans to PTS can, to certain ticularly those in Europe and Asia, play a dominant extent, be dependant on each of these factors. The pre- role in the contamination of the Arctic. Given the spa- cise role differs depending on the contaminant con- tial distribution of PTS emission sources, and their cerned, however, with respect to human intake, the potential for ‘global’ transport, evaluation of long- chain consisting of ‘source – pathway – biological avail- range atmospheric transport of PTS to the Arctic ability’ applies to all contaminants. Leaving aside the region necessarily involves modeling on the hemi- biological aspect of the problem, this chapter focuses spheric/global scale using a multi-compartment on PTS sources, and their physical transport pathways. approach. To meet these requirements, appropriate modeling tools have been developed. Contaminant sources can be provisionally separated into three categories: Extensive efforts were made in the collection and • Distant sources: Located far from receptor sites in preparation of input data for modeling. This included the Arctic. Contaminants can reach receptor areas the required meteorological and geophysical informa- via air currents, riverine flow, and ocean currents. tion, and data on the physical and chemical properties During their transport, contaminants are affected by of both the selected substances and of their emissions. -
Annual Report JSC CONCERN ROSENERGOATOM for 2009
Annual Report JSC CONCERN ROSENERGOATOM FOR 2009 Safety Effi ciency Responsibility Safety Effi ciency Responsibility JSC Concern Rosenergoatom Annual report for 2009 Content I. GENERAL INFORMATION 1. Preamble 7 1.1. On the Annual Report 7 2. Statements of top management of Rosenergoatom 8 2.1. Statement of the Chairman of the Board of Directors of Rosenergoatom 8 2.2. Statement of the General Director of Rosenergoatom 9 3. General information on Rosenergoatom 10 4. Key corporate events in 2009 11 5. Mission of Rosenergoatom 13 6. Management 13 6.1. Management structure 13 6.2. Management methods and corporate policy 24 II. CORE BUSINESS 7. Strategy 29 7.1. Positions of Rosenergoatom within the industry 29 7.2. Strategy of Rosenergoatom 30 7.3. Rosenergoatom’s medium-term development objectives and tasks (2009–2011) 30 7.4. Key performance indicators of Rosenergoatom 31 7.5. Key risks associated with Rosenergoatom’s operations 31 8. Rosenergoatom. Facts and fi gures 32 8.1. Generating capacities of Rosenergoatom 34 8.2. Electricity generation at Russian NPPs 44 8.3. Maintenance and repairs 45 8.4. Lifetime extension of NPP units 46 8.5. Production growth program 46 8.6. Construction of new power units 47 9. Priority areas of operations of Rosenergoatom 49 9.1. Production and marketing activities of Rosenergoatom 49 9.2. Investments 50 9.3. Innovation and competitive growth 50 III. CORPORATE RESPONSIBILITY 10. Safety 53 10.1. Safety indicators 53 10.2. Ensuring nuclear and radiation safety and non-proliferation of nuclear materials 55 4 JSC Concern Rosenergoatom 10.3. -
Russia Highly Appreciates the Activity of IAEA and Its Role in Promoting "Peaceful Atom” in Every Aspects of Life
Unofficial translation Dear colleagues, ladies and gentlemen! Russia highly appreciates the activity of IAEA and its role in promoting "peaceful atom” in every aspects of life. We strongly support Agency's activities in the field of nuclear science and technology, participate in virtually all areas of activity and provide our knowledge, experience, educational opportunities and experimental facilities to promote this important industry. We are convinced that nuclear and radiation technologies, based on solid foundation of science, will make a significant contribution to achievement of Sustainable Development Goals of mankind, including problems of climate and power supply. The strategic goal of Russian nuclear industry is to ensure the innovative development of our country based on the expansion of application of nuclear technologies in various sectors of the economy. The focus is traditionally set on the development of nuclear energy technologies. We are convinced that the future of nuclear energy is inextricably linked with the closure of the nuclear fuel cycle. Russian scientists have already made a significant contribution to the development and commercialization of this direction, demonstrating to the world the operability and attractiveness of its key element - fast neutron reactor of 4th generation. This was the basis for the development and implementation of the Breakthrough project with a demonstration of technical solutions for existing challenges, nuclear power industry faces today: critical decision to increase the safety of nuclear power generation is the transition to “natural safety” reactor systems and the resolution of issues related to the management of spent nuclear fuel and radioactive waste. Undoubtedly, one of the components of new technological platform is the development of low and medium power sector of nuclear power industry. -
Passive Safety Injection System Design and Simulation for Small Scale Pressurized Water Reactor
Passive Safety Injection System Design and Simulation for Small Scale Pressurized Water Reactor Muhammad Tahir A dissertation submitted for the degree of “Doctor of Philosophy” (PhD) in Pakistan Institute of Engineering and Applied Sciences Islamabad Pakistan May 2011 Declaration I declare 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 in this or in any other university. Signature: __________________________ Author’s Name: (Muhammad Tahir) Supervisor Dr. Imran Rafiq Chughtai Principal Engineer Department of Chemical and Materials Engineering Pakistan Institute of Engineering and Applied Sciences [PIEAS] Islamabad, Pakistan. Head, DNE, PIEAS 2 Acknowledgements All praises and thanks to God, the most Merciful, Compassionate, Gracious and Beneficent who has created man and is a source of knowledge and wisdom. At the very outset, I am thankful to my supervisors, Dr. Imran Rafiq Chughtai, PE and Dr. Muhammad Aslam, CE for their supervision, technical advices throughout the investigations and preparation of this manuscript. I am greatly indebted to director Imtiaz Rabbani for his administrative guidance. I am also grateful to my professors at PIEAS especially Dr. Muhammad Aslam, Dr. Tehsin Hamid, Dr. Naseem Irfan, Dr. Mansoor Hamid Inayat, Dr. Nasir Majid Mirza, Dr. Sikandar Majid Mirza and Dr. Muhammad Tufail. I am thankful to Dr. Muhammad Arfin Khan for his assistance in visiting Texas Tech University USA and guidance in educational and research activities. I am also grateful to my friends and colleagues who ensured a creative and good working environment and helped me in technical and non-technical matters. -
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. -
Monitoring Oil Spill in Norilsk, Russia Using Satellite Data Sankaran Rajendran1*, Fadhil N
www.nature.com/scientificreports OPEN Monitoring oil spill in Norilsk, Russia using satellite data Sankaran Rajendran1*, Fadhil N. Sadooni1, Hamad Al‑Saad Al‑Kuwari1, Anisimov Oleg2, Himanshu Govil3, Sobhi Nasir4 & Ponnumony Vethamony1 This paper studies the oil spill, which occurred in the Norilsk and Taimyr region of Russia due to the collapse of the fuel tank at the power station on May 29, 2020. We monitored the snow, ice, water, vegetation and wetland of the region using data from the Multi‑Spectral Instruments (MSI) of Sentinel‑2 satellite. We analyzed the spectral band absorptions of Sentinel‑2 data acquired before, during and after the incident, developed true and false‑color composites (FCC), decorrelated spectral bands and used the indices, i.e. Snow Water Index (SWI), Normalized Diference Water Index (NDWI) and Normalized Diference Vegetation Index (NDVI). The results of decorrelated spectral bands 3, 8, and 11 of Sentinel‑2 well confrmed the results of SWI, NDWI, NDVI, and FCC images showing the intensive snow and ice melt between May 21 and 31, 2020. We used Sentinel‑2 results, feld photographs, analysis of the 1980–2020 daily air temperature and precipitation data, permafrost observations and modeling to explore the hypothesis that either the long‑term dynamics of the frozen ground, changing climate and environmental factors, or abnormal weather conditions may have caused or contributed to the collapse of the oil tank. Te oil spill detection and tracking through satellite sensors have remarkable advances in utilizing the visible, shortwave to thermal infrared (optical) and the microwave radar bands. Surface identifcation and mapping of an oil spill are essential to evaluate the potential spread and foat from the source to the adjacent areas or endpoints1,2. -
Update on the Clean-Up Following the Accident at a Fuel Storage of Norilsk Nickel October 2020 Disclaimer
Update on the Clean-up Following the Accident at a Fuel Storage of Norilsk Nickel October 2020 Disclaimer The information contained herein has been prepared using information available to PJSC MMC Norilsk Nickel (“Norilsk Nickel” or “Nornickel” or “NN”) at the time of preparation of the presentation. External or other factors may have impacted on the business of Norilsk Nickel and the content of this presentation, since its preparation. In addition all relevant information about Norilsk Nickel may not be included in this presentation. No representation or warranty, expressed or implied, is made as to the accuracy, completeness or reliability of the information. Any forward looking information herein has been prepared on the basis of a number of assumptions which may prove to be incorrect. Forward looking statements, by the nature, involve risk and uncertainty and Norilsk Nickel cautions that actual results may differ materially from those expressed or implied in such statements. Reference should be made to the most recent Annual Report for a description of major risk factors. There may be other factors, both known and unknown to Norilsk Nickel, which may have an impact on its performance. This presentation should not be relied upon as a recommendation or forecast by Norilsk Nickel. Norilsk Nickel does not undertake an obligation to release any revision to the statements contained in this presentation. The information contained in this presentation shall not be deemed to be any form of commitment on the part of Norilsk Nickel in relation to any matters contained, or referred to, in this presentation. Norilsk Nickel expressly disclaims any liability whatsoever for any loss howsoever arising from or in reliance upon the contents of this presentation. -
Cooperation in Nuclear Waste Management, Radiation Protection, Emergency Preparedness, Reactor Safety and Nuclear Non-Proliferat
Författare: Lars van Dassen et.al. 2010:19 Cooperation in Nuclear Waste Management, Radiation Protection, Emergency Prepared- ness, Reactor Safety and Nuclear Non-Proli- feration with the Russian Federation, Ukraine, Armenia, Georgia and Belarus Rapportnummer: 2010:19 ISSN:2000-0456 Tillgänglig på www.stralsakerhetsmyndigheten.se Titel: Cooperation in Nuclear Waste Management, Radiation Protection, Emergency Pre- paredness, Reactor Safety and Nuclear Non-Proliferation with the Russian Federation, Ukraine, Armenia, Georgia and Belarus. Rapportnummer: 2010:19 Författare: : Lars van Dassen, Sarmite Andersson, Gabriela Bejarano, Zlatan Delalic, Christer Ekblad, Olga German, Sten Grapengiesser, Olof Karlberg, Kjell Olsson, Viviana Sandberg, Tor Stenberg, Roland Turner and Irene Zinger Datum: June 2010 Foreword The Swedish Radiation Safety Authority (SSM) is trusted with the task of implementing Sweden’s bilateral cooperation with Russia, Ukraine, Ge- orgia, Belarus and Armenia in the fields of reactor safety, nuclear waste management, nuclear non-proliferation as well as radiation protection and emergency preparedness. In these fields, SSM also participates in a number of projects financed by the European Union. This report gives an overview of the cooperation projects in 2009 as well as the framework in which they are performed. Summaries of each project are given in an Appendix. The project managers in the Section for Cooperation and Development in the Department of International Affairs are responsible for the cooperation projects and the implementation of the bilateral programmes. But the posi- tive outcome of the projects is also dependent on a large number of experts at SSM who work with the regulatory functions in the nuclear and radiation protection fields in a Swedish context as well as on external consultants.