Nuclear Plant Operations 101

Slides:



Advertisements
Similar presentations
Nuclear Technology Taming the nucleus?. Outline Controlled Fission Reactions. Fuel enrichment Neutron moderation Control rods Nuclear Plant Design and.
Advertisements

Nuclear Power – Need and Future. Outline Economics of Nuclear Energy Basics of a Power Plant Heat From Fission History of Nuclear Power Current Commercial.
Some nuc. reactors. Nuclear reaction by Fission Nuclear fission: All commercial power reactors are based on nuclear fission. generally use uranium and.
Splitting The Atom Nuclear Fission. Fission Large mass nuclei split into two or more smaller mass nuclei –Preferably mass numbers closer to 56 Neutrons.
Nuclear Fuel, Uranium Enrichment, Fuel Fabrication, MOX Seminar on Nuclear Science and Technology for Diplomats P. Adelfang (+)Division of Nuclear Fuel.
OVERVIEW: Definition Types of nuclear reactions First commercial application Mechanism & Brief History Advantages and Disadvantages Facts of Nuclear energy.
Indian strategy for management of spent fuel from Nuclear Power Reactors S.Basu, India.
Nuclear Plant Systems ACADs (08-006) Covered Keywords
Splitting The Atom Nuclear Fission. The Fission Process unstable nucleus mass closer to 56.
Nuclear Reactors Chapter 4
23.4 Nuclear energy NUCLEARNUCLEAR POWERPOWER Millstone Station.
23.4 Nuclear energy NUCLEARNUCLEAR POWERPOWER Millstone Station.
Japan’s Nuclear Energy Program
Department of Nuclear Energy International Atomic Energy Agency Nuclear Power in the 21 st Century: Status and Trends in Advanced Nuclear Technology Development.
Fuel Cycle – High Level Waste Disposal
Nuclear Plant Operations 101 December 1, 2010 Vijay K. Sazawal, Ph.D. Director, Government Programs Disclaimer: Views expressed in the presentation are.
Stephen Dembek, Section Chief Export Controls and International Organizations Section Office of International Programs Contact Info: ,
Nuclear Reactors and Nuclear Energy Conversion of mass-energy to electrical energy mass-energy  thermal  kinetic  electric Produces large amounts of.
Chapter 4 Nuclear Energy. Objectives Describe how nuclear fuel is produced. List the environmental concerns associated with nuclear power. Analyze the.
Chapter 12 Nuclear. PG&E Bill PG&E Website PG&E Website PG&E Website PG&E Website.
19.5 NUCLEAR POWER ZACH ANDERSON ADAM CORE CH.19 CONVENTIONAL ENERGY.
PBNC- 1 Overview of US Nuclear Energy Initiatives /06- 1 Harold McFarlane President American Nuclear Society.
NUCLEAR ENERGY Or How The World Learned To Stop Worrying and Love the Alternative Energy Source Sophia Khan and Dom Bolton.
Steven Biegalski, Ph.D., P.E. Director, Nuclear Engineering Teaching Laboratory Associate Professor, Mechanical Engineering Dusting off the Atom: Nuclear.
Nuclear Energy By: Elisa Fatila April 6, 2006.
Nuclear Power Plants. History of nuclear power 1938– Scientists study Uranium nucleus 1941 – Manhattan Project begins 1942 – Controlled nuclear chain.
Nuclear Energy.
Nuclear Energy Chapter 12. Nuclear Fuel Cycle Uranium mines and mills U-235 enrichment Fabrication of fuel assemblies Nuclear power plant Uranium tailings.
 Principles of nuclear energy  Fission reactions  Nuclear reactor  Nuclear power plants.
Nuclear Fission. unstable nucleus mass closer to 56.
Reactor Fundamentals Ray Ganthner Sr. Vice President AREVA NP “Role of Nuclear Power” 2007 Summer Workshop Washington and Lee University and the Council.
Nuclear Power Reactors SEMINAR ON NUCLEAR POWER REACTOR.
4/2003 Rev 2 I.4.7 – slide 1 of 48 Session I.4.7 Part I Review of Fundamentals Module 4Sources of Radiation Session 7Nuclear Reactors IAEA Post Graduate.
Nuclear Fuel Cycle.  According to World Nuclear Association:  The nuclear fuel cycle is the series of industrial processes which involve the production.
Synergistic Relationships of Advanced Nuclear Fuel Cycles Jordan Weaver Technology Report Presentation.
Fundamentals of Nuclear Power. Nuclear Power Plants Nuclear power is generated using Uranium, which is a metal mined in various parts of the world. Some.
Fission Physics 12 Adv. Comprehension Check 1. Two deuterium nuclei fuse to form a tritium nuclei and a proton. How much energy is liberated? 2. A deuterium.
4/2003 Rev 2 I.4.9j – slide 1 of 18 Session I.4.9j Part I Review of Fundamentals Module 4Sources of Radiation Session 9jFuel Cycle – High Level Waste Disposal.
Liquid Metal Fast Breeder Reactors Martin W. Metzner November 19, 2007.
Nuclear Power Physics /7/03. Outline  The Nucleus  Radioactivity  Fission  Fusion  Nuclear Weapons  Nuclear Power.
The Nuclear Fuel Cycle Mary Lou Dunzik-Gougar, PhD ANS Teachers’ Workshop 2014.
Power Plant Construction and QA/QC Section 1.4– Nuclear Energy Engineering Technology Division.
Chapter 11 Nuclear Power  Energy released in combustion reactions comes from changes in the chemical bonds that hold the atom together.  Nuclear Energy.
Nuclear Power Reactors
The Nuclear Fuel industry The nuclear fuel cycle.
LOW PRESSURE REACTORS. Muhammad Umair Bukhari
NUCLEAR REACTORS G. HETSRONI Emeritus Danciger Professor of Engineering Technion – Haifa – Israel.
Introduction to Nuclear Energy Candace Davison Senior Reactor Operator Penn State University.
THE NUCLEAR FUEL CYCLE. The Nuclear Fuel Cycle consists of sequence of steps in which U ore is mined, milled, enriched, and fabricated into nuclear fuel.
Nuclear Power: “Too cheap to meter” Ready Kilowatt.
NuScale Generator A Practical Energy Alternative for the Future
1039 GW Power Plant Equivalent
SUMMARY OF GAS COOLED REACTOR DEVELOPMENT
IAEA International Conference on Fifty Years of Nuclear Power – The next Fifty Years Moscow - Obninsk, Russian Federation - June 28, 2004 Nuclear.
Nuclear Energy David Rude
Nuclear Power Generation
What are fission and fusion? What fuels a nuclear reaction?
Global Nuclear Energy Partnership [GNEP]
Collaborative Research in
Date of download: 12/26/2017 Copyright © ASME. All rights reserved.
Japan’s Nuclear Energy Program
Pressurized Water Reactors
An Innovative Design by a Nuclear Newcomer
NUCLEAR REACTOR MATERIALS
NEI Perspectives on Small Modular Reactors
Nuclear Power: “Too cheap to meter”
Nuclear (Atomic) Power Plant
Exploring Nuclear Energy
Nuclear Energy.
NuScale Micro-Reactor Technology
Presentation transcript:

Nuclear Plant Operations 101 December 1, 2010 Vijay K. Sazawal, Ph.D. Director, Government Programs Disclaimer: Views expressed in the presentation are attributable solely to the author

Restricted Proprietary Information Presentation Global Nuclear Power Map and Market Nuclear Fuel Cycle Front end Back end Power Reactors Nuclear Power Plants in operation Light Water Reactors (LWRs) Evolution of Nuclear Reactor Designs Small Modular Reactors (SMRs) Application of Export Controls Definition of key terms Departmental delineation When in doubt….. Closing remarks Restricted Proprietary Information

Global Nuclear Map and Market 30 Countries with 438 total units operating U.S.: 104 (20%) France: 58 (78%) Japan: 53 (27%) Russia: 31 (17%) Canada: 21 (15%) S. Korea: 20 (37%) Germany: 17 (27%) 50 Reactors in construction in 13 countries 68 Countries considering nuclear power, nearly half seriously Key markets for U.S. companies include China, India, Canada, Poland, the Czech Republic, Slovakia, Italy, Vietnam, UAE and U.K. Restricted Proprietary Information

Restricted Proprietary Information Nuclear Fuel Cycle Restricted Proprietary Information

Front End of Nuclear Fuel Cycle Mining (Uranium Ore) Milling (“Yellowcake”/Uranium Oxide) Conversion (UF6) Enrichment (LEU) Fuel Fabrication/Assembly Restricted Proprietary Information

Restricted Proprietary Information Nuclear Enrichment Restricted Proprietary Information

Restricted Proprietary Information Fuel Assemblies PWR FUEL BWR FUEL Restricted Proprietary Information

Back End of Nuclear Fuel Cycle Interim storage Spent fuel processing Repository Restricted Proprietary Information

Restricted Proprietary Information Interim Wet Storage Restricted Proprietary Information

Restricted Proprietary Information Interim Dry Storage Restricted Proprietary Information

Restricted Proprietary Information Reprocessing COEX PUREX Restricted Proprietary Information

Restricted Proprietary Information Repository - WIPP Restricted Proprietary Information

Repository – Yucca Mountain Restricted Proprietary Information

Nuclear Power Plants in Commercial Operation Reactor Type Main Countries Number GWe Fuel Coolant Moderator Pressurised Water Reactor (PWR) US, France, Japan, Russia, China 265 251.6 Enriched UO2 Water Boiling Water Reactor (BWR) US, Japan, Sweden 94 86.4 Pressurised Heavy Water Reactor ‘CANDU’ (PHWR) Canada 44 24.3 Natural UO2 Heavy Water Gas-cooled Reactor (AGR & Magnox) UK 18 10.8 Natural U (metal) CO2 Graphite Light Water Graphite Reactor (RBMK) Russia 12 12.3 Fast Neutron Reactor (FBR) Japan, Russia 2 1.0 PuO2 and UO2 Liquid Sodium None Source: Nuclear Engineering International Handbook 2010 Restricted Proprietary Information

Light Water Reactors (LWRs) Restricted Proprietary Information

Pressurized Water Reactor (PWR) Restricted Proprietary Information

Restricted Proprietary Information PWR Steam Generator Restricted Proprietary Information

Restricted Proprietary Information PWR Coolant Pump Restricted Proprietary Information

Restricted Proprietary Information BWR Reactor System Restricted Proprietary Information

Restricted Proprietary Information Balance of Plant (BoP) Restricted Proprietary Information

Evolution of Nuclear Reactor Designs Restricted Proprietary Information

Small Nuclear Power Reactors IAEA defines “small” as under 300 MWe Renewed interest in small reactors partly in response to high capital cost of large power reactors Lends to modular construction and incremental additions in capacity Assessment by IAEA in 2009 concluded that there could be 43-96 small modular reactors (SMRs) in operation by 2030 Other countries are likely to build and operate SMRs ahead of the U.S. Russia will commission a floating nuclear plan (35 MWe PWR) in 2011 FY 2011 President’s Budget Request included $39M for SMR development DOE exploring public-private partnership to pursue NRC design certification for 1 to 2 SMRs employing LWR technologies Commercial deployment of SMRs expected in the U.S. around 2020 Restricted Proprietary Information

NRC Pre-Application Review of Small Reactors No. Design Applicant Capacity Type Design Certification Application 1. NuScale NuScale Power, Inc. 160 MWt/45 MWe PWR 1Q CY 2012 2. Pebble Bed Modular Reactor (PBMR) PBMR (Pty.), Ltd. 400 MWt/165 MWe HTR FY 2013 3. Super-Safe Small & Simple (4S) Toshiba 30MWt/10 MWe LMR 2Q CY 2012 4. Hyperion Power Module (HPM) Hyperion Power Generation, Inc. 70MWt/25 MWe MSR N/A 5. Power Reactor Innovative Small Module (PRISM) GE-Hitachi Nuclear Energy 840MWt/311 MWe 6. mPower Babcock & Wilcox Company 400MWt/125MWe 4Q CY 2012 Gas Turbine-Modular Helium General Atomics-OKBM 600MWt/285 MWe HTR N/A Reactor (GT-MHR) Energy Multiplier Module General Atomics 250 MWe HFR N/A (EM2) Traveling Wave Reactor TerraPower, LLC Restricted Proprietary Information HTR N/A

Application of Export Controls Definition of Key Terms Source Materials: Material in any physical or chemical form or ores that contain by weight 0.05 percent or more of uranium or thorium (or in combination). Depleted uranium (left over from uranium enrichment) is considered a source material Source Material Licensing: 10 CFR Part 40 Special Nuclear Material (SNM): Plutonium, Uranium-233, Uranium enriched in the isotopes U-233 or U-235. Pu and U-233 do not occur naturally SNM Licensing: 10 CFR Part 70 By Product Material: Non-SNM material that is radioactive and produced either by fission process or by using SNM. Examples are Tritium (H-3), Carbon-14, Flourine-18, Cobalt-57, Krypton-87, Radium-226 By Product Licensing: 10 CFR Part 30 Restricted Proprietary Information

Nuclear Facilities and Equipment Under NRC Export Licensing Authority Major equipment used in nuclear reactors: Reactor pressure vessel On-line fuel charging and discharging machines Control rod system and drive mechanisms Reactor primary coolant pump Zirconium tubes Reactor internals (NSSS) Major equipment (especially designed or critically important) for following plants: Separation and enrichment of isotopes of uranium and lithium Fabrication of nuclear reactor fuel assemblies Reprocessing of irradiated nuclear reactor fuel Production of heavy water Conversion of uranium and plutonium Production of SNM using accelerator driven systems above 5MWt Restricted Proprietary Information

Nuclear Material Under NRC Export Licensing Material SNM* Source Material* Byproduct Material* Deuterium (heavy water) Nuclear grade graphite Full details in 10 CFR Part 110, including latest updates * Requires NRC Import License Restricted Proprietary Information

Department of Commerce-Bureau of Industry & Security (BIS) Export licenses cover “Dual Use” items BIS export licenses may be required depending on the nature of the item, the country of destination and specific “end-use” Export licenses may apply to major equipment and technology in the Balance of Plant (BoP) High pressure turbines Condensate pumps, valves and motors Main generators and back-up generators Transformers Fire detection and suppression systems I&C used in BoP Radiation detection Telecommunications Tools and maintenance Additional guidance from BIS: www.bis.doc.gov Restricted Proprietary Information

Restricted Proprietary Information When in Doubt….. Department of Commerce, International Trade Administration (ITA) Civil Nuclear Exporters Guide: www.ita.doc.gov (202) 482-8245 (202) 482-3851 NRC (10CFR 110) Office of Export Controls and International Programs (301) 415-3684 (301) 415-1780 NNSA (10CFR 810) Office of International Regimes and Agreements (202) 586-0269 (202) 586-3806 DOC (“Dual Use”) Bureau of Industry and Security (202) 482-16414 (202) 482-2180 DOS (“123 Agreements”) Office of Nuclear Energy, Safety and Security (202) 647-4061 (202) 647-3978 Restricted Proprietary Information

Restricted Proprietary Information Closing Remarks U.S. Government Executive Order – National Export Initiative Civil Nuclear Trade Initiative Interagency Working Group Trade Promotion Government – Industry Coordination Civil Nuclear Trade Advisory Committee (CINTAC) Civil Nuclear Exporters Guide Export Control Seminars Industry Briefings Any Questions? Restricted Proprietary Information