| Description |
1 online resource (xxii, 409 pages, 4 unnumbered pages of color plates) : illustrations (some colour) |
| Series |
Woodhead Publishing series in energy ; number 26 |
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Woodhead Publishing in energy ; no. 26.
|
| Contents |
Machine generated contents note: pt. I Reactor pressure vessel (RPV) design and fabrication -- 1. Reactor pressure vessel (RPV) design and fabrication: the case of the USA / R.K. Nanstad -- 1.1. Introduction -- 1.2. American Society of Mechanical Engineers (ASME) Code design practices -- 1.3. The design process -- 1.4. Reactor pressure vessel (RPV) materials selection -- 1.5. Toughness requirements -- 1.6. RPV fabrication processes -- 1.7. Welding practices -- 1.8. References -- 2. Reactor pressure vessel (RPV) components: processing and properties / Y. Tanaka -- 2.1. Introduction -- 2.2. Advances in nuclear reactor pressure vessel (RPV) components -- 2.3. Materials for nuclear RPVs -- 2.4. Manufacturing technologies -- 2.5. Metallurgical and mechanical properties of components -- 2.6. Conclusions -- 2.7. References -- 3. WWER-type reactor pressure vessel (RPV) materials and fabrication / M. Brumovsky -- 3.1. Introduction -- 3.2. WWER reactor pressure vessel (RPV) materials -- 3.3. Production of materials for components and welding techniques -- 3.4. Future trends -- 3.5. Sources of further information and advice -- pt. II Reactor pressure vessel (RPV) embrittlement in operational nuclear power plants -- 4. Embrittlement of reactor pressure vessels (RPVs) in pressurized water reactors (PWRs) / P. Todeschini -- 4.1. Introduction -- 4.2. Characteristics of pressurized water reactor (PWR) reactor pressure vessel (RPV) embrittlement -- 4.3. US surveillance database -- 4.4. French surveillance database -- 4.5. Japanese surveillance database -- 4.6. Surveillance databases from other countries -- 4.7. Future trends -- 4.8. References -- 5. Embrittlement of reactor pressure vessels (RPVs) in WWER-type reactors / M. Brumovsky -- 5.1. Introduction -- 5.2. Characteristics of embrittlement of WWER reactor pressure vessel (RPV) materials -- 5.3. Trend curves -- 5.4. WWER surveillance programmes -- 5.5. RPV annealing in WWER reactors -- 5.6. RPV annealing technology -- 5.7. Sources of further information and advice -- 5.8. References -- 6. Integrity and embrittlement management of reactor pressure vessels (RPVs) in light-water reactors / R.K. Nanstad -- 6.1. Introduction -- 6.2. Parameters governing reactor pressure vessel (RPV) integrity -- 6.3. Pressure -- temperature operating limits -- 6.4. Pressurized thermal shock (PTS) -- 6.5. Mitigation methods -- 6.6. Licensing considerations -- 6.7. References -- 7. Surveillance of reactor pressure vessel (RPV) embrittlement in Magnox reactors / M.R. Wootton -- 7.1. Introduction -- 7.2. History of Magnox reactors -- 7.3. Reactor pressure vessel (RPV) materials and construction -- 7.4. Reactor operating rules -- 7.5. Design of the surveillance schemes -- 7.6. Early surveillance results -- 7.7. Dose-damage relationships and intergranular fracture in irradiated submerged-arc welds (SAWs) -- 7.8. Influence of thermal neutrons -- 7.9. Validation of toughness assessment methodology by RPV SAW sampling -- 7.10. Final remarks -- 7.11. Acknowledgements -- 7.12. References -- pt. III Techniques for the evaluation of reactor pressure vessel (RPV) embrittlement -- 8. Irradiation simulation techniques for the study of reactor pressure vessel (RPV) embrittlement / K. Fukuya -- 8.1. Introduction -- 8.2. Test reactor irradiation -- 8.3. Ion irradiation -- 8.4. Electron irradiation -- 8.5. Advantages and limitations -- 8.6. Future trends -- 8.7. Sources of further information and advice -- 8.8. References -- 9. Microstructural characterisation techniques for the study of reactor pressure vessel (RPV) embrittlement / C.A. English -- 9.1. Introduction -- 9.2. Microstructural development and characterisation techniques -- 9.3. Transmission electron microscopy (TEM) -- 9.4. Small angle neutron scattering (SANS) -- 9.5. Atom probe tomography (APT) -- 9.6. Positron annihilation spectroscopy (PAS) -- 9.7. Auger electron spectroscopy (AES) -- 9.8. Other techniques -- 9.9. Using microstructural analysis to understand the mechanisms of reactor pressure vessel (RPV) embrittlement -- 9.10. Grain boundary segregation -- 9.11. Matrix damage -- 9.12. Solute clusters -- 9.13. Mechanistic framework to develop dose-damage relationships (DDRs) -- 9.14. Recent developments and overall summary -- 9.15. References -- 10. Evaluating the fracture toughness of reactor pressure vessel (RPV) materials subject to embrittlement / M. Brumovsky -- 10.1. Introduction -- 10.2. The development of fracture mechanics -- 10.3. Plane-strain fracture toughness and crack-arrest toughness -- 10.4. Current standard of fracture toughness curve -- 10.5. Effects of irradiation on fracture toughness -- 10.6. Fracture toughness versus Charpy impact energy -- 10.7. Heavy Section Steel Technology Program and other international reactor pressure vessel (RPV) research programs -- 10.8. Advantages and limitations of fracture toughness testing -- 10.9. Future trends -- 10.10. References -- 11. Embrittlement correlation methods to identify trends in embrittlement in reactor pressure vessels (RPVs) / N. Soneda -- 11.1. Introduction -- 11.2. Development of the embrittlement correlation method -- 11.3. Embrittlement correlation methods: USA -- 11.4. Embrittlement correlation methods: Europe -- 11.5. Embrittlement correlation methods: Japan -- 11.6. Conclusions -- 11.7. References -- 12. Probabilistic fracture mechanics risk analysis of reactor pressure vessel (RPV) integrity / R.M. Gamble -- 12.1. Introduction -- 12.2. Risk evaluation procedures for assessing reactor pressure vessel (RPV) integrity -- 12.3. Probabilistic fracture mechanics analysis software -- 12.4. Conditional probability computational procedure -- 12.5. Example calculations and applications -- 12.6. Future trends -- 12.7. References |
| Summary |
Reactor Pressure Vessels (RPVs) contain the fuel and therefore the reaction at the heart of nuclear power plants. They are a life-determining structural component: if they suffer serious damage, the continued operation of the plant is in jeopardy. This book critically reviews irradiation embrittlement, the main degradation mechanism affecting RPV steels, and mitigation routes for managing the RPV lifetime. Part I reviews RPV design and fabrication in different countries, with an emphasis on the materials required, their important properties, and manufacturing technologies. Part II then con |
| Bibliography |
Includes bibliographical references and index at the end of each chapters |
| Notes |
English |
|
Print version record |
| Subject |
Nuclear pressure vessels -- Effect of radiation on
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Steel -- Effect of radiation on
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Steel -- Embrittlement
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Nuclear reactors.
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Nuclear Reactors
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nuclear reactors.
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TECHNOLOGY & ENGINEERING -- Mechanical.
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Steel -- Embrittlement
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Steel -- Effect of radiation on
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Nuclear pressure vessels -- Effect of radiation on
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Nuclear pressure vessels
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Nuclear reactors
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| Form |
Electronic book
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| Author |
Soneda, Naoki, editor
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| ISBN |
9780857096470 |
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0857096478 |
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1322097682 |
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9781322097688 |
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0081013906 |
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9780081013908 |
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