Nuclear power and engineering Books

Book Synopsis1. Introduction.- 2. Historical Development.- 3. Mathematical and Physical Foundations.- 4. Neutron Sources.- 4.1 Thermal Neutron Reactors.- 4.2 Accelerators.- 4.3 Radioisotopes.- 4.4 Sub-Critical Assemblies.- 4.5 Comparison of Neutron Sources.- 5. Neutron Beam.- 5.1 Nuclear Cross-Sections.- 5.2 Calculation of The Cross-Sections of Compounds.- 5.3 Neutron Moderation.- 5.4 Attenuation Coefficients.- 5.5 Utilization of The Attenuation of Radiation in Radiography.- 6. Imaging Techniques.- 6.1 Direct Exposure Technique.- 6.2 Transfer Technique.- 6.3 Track-Etch Technique Using Nitrocellulose Film.- 6.4 Dynamic Imaging Methods.- 6.5 Tomography.- 6.6 Comparison of Various Imaging Techniques.- 7. Image Recorders.- 7.1 Photographic Film.- 7.2 Nitrocellulose Film.- 7.3 Comparison Between Silver-Halide and Nitrocellulose Film With Regard to Image Recording and Quality.- 8. Converters.- 8.1 Converters for Direct and Transfer Technique.- 8.2 Converters for Photographic Film Imaging.- 8.3 ConvertersTable of ContentsPreface. 1. Introduction. 2. Historical Development. 3. Mathematical and Physical Foundations. 4. Neutron Sources. 5. Neutron Beam. 6. Imaging Techniques. 7. Image Recorders. 8. Converters. 9. Neutron Radiography Facilities. 10. Collimators. 11. Radiographic Techniques. 12. Exposure Facilities. 13. Processing of Films. 14. Radiographic Darkroom and Accessories. 15. Viewing of Neutron Radiographs. 16. Measuring Dimensions from Neutron Radiographs. 17. Indicators for Image Quality Control. 18. Typical Applications of Neutron Radiography. 19. Dynamic Neutron Radiography. 20. Standards in the Field of Neutron Radiography. 21. Neutron Radiography Facilities in The European Communities. 22. Terminology and Definitions. 23. Useful Data. References, Index.

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Book SynopsisBased on the lectures given during the Eurocourse on `Non-Destructive Testing Techniques for the Inspection of Industrial Structural Components', held at the Joint Research Centre, Ispra, Italy, October 25--29, 1993Table of ContentsForeword. Critical comparison of inspection standards; S. Reale, E. Capurro, L. Tognarelli. Qualification of inspections; J. Whittle, C. Waites. Personnel qualification in Europe: a status report; M.J. Whittle, J.M. Farley. Inspection qualification strategies as developed in PISC III Action 8 and in ENIQ: Part 1 -- Overall process; G. Engl. Inspection qualification strategies as developed in PISC III Action 8 and in ENIQ: Part 2 -- Aspects of qualification; J. Whittle. PISC-I and PISC-II: Looking for effective and reliable inspection procedures; S. Crutzen. Evaluation of the sizing results of 12 flaws of the full scale vessel installation; . PISC III results on Action 3 `Nozzles & dissimilar welds'; Ph. Dombret. Sizewell `B' inspection validation experience and how it can be used for future qualification programmes; C. Waites. Structural integrity significance of inspection results; S. Reale, L. Tognarelli. Mock-ups and flaw fabrication experience; P. Lemaitre. Human factor studies in PISC III; R. Murgatroyd, H. Seed, G.M. Worral, S. Crutzen. Validation of mathematical models of the ultrasonic inspection of steel components: Part 1 -- Validation of three models; F. Lakestani. The use of mathematical modelling in inspection qualification; R.K. Chapman. Ultrasonic modelling for performance demonstration; B.J. Dikstra. Lecture notes on Appendix VIII to ASME Code Section XI; F.L. Becker. Performance demonstration initiative US implementation of ASME B&PV code Section XI Appendix VIII; F.L. Becker. Independent inspection validation -- a regulatory view of its use in the SIZEWELL `B' safety concept; B. Hemsworth. The Spanish approach to ISI verification; F. Cazorla. In-service inspection rules for mechanical components of PWR nuclear islands; A. Rémond. Demonstration of performance of NDT techniques in the context of the RSEM code; F. Pons. French approach to ISI qualification; F. Champigny. The inspection methods qualification attitude for the construction and maintenance by FRAMATOME; A. Thomas. The Belgian approach to ISI qualification; H. Sweerts, Ph. Dombret, Ph. Simoens. The Finnish position on ISI qualifcation; J.T. Sillanpää. ISI qualification in the Netherlands; L. van der Wiel. The German contribution to ISI procedures capability verification; H. Wüstenberg. The Swiss position on ISI qualification; D.H. Njo, W. Neumann. The Swedish utilities view on NDT qualification; U. Sandberg. IIW contribution to inspection validation; H. Wüstenberg. ENIQ: European Network in Inspection Qualification; P. Lemaitre.

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Book SynopsisProceedings of the IUTAM Symposium held in Kyoto, Japan, 9--13 May 1994Table of Contents1: Waves in liquid-gas bubble systems including interfacial effects. Void waves. Acoustic waves. Pressure waves. Elementary process. 2: Waves in gas(vapor)-droplets systems. 3: Waves in film or stratified systems. 4: Waves in liquid-vapor transition. 5: Waves with vapor-liquid transition. 6: Wave propagation near critical point. 7: Waves with low pressure effect.

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Book Synopsis1. Management of Plutonium in Russia.- 2. Overview Long-Term Disposition Options for Plutonium Rational Management of Excess Weapons Plutonium.- 3. Basic Technological Solutions for Plutonium Management at the RT-2 Plant.- 4. Disposition of Surplus Separated Plutonium Influence of Interim Storage of Plutonium.- 5. Security and Safeguards Aspects of Nuclear Material Handling in Russia.- 6. Security and Safeguards Aspects of Plutonium Facilities in BNFL, UK.- 7. A Perspective on Safeguarding and Monitoring Excess Military Plutonium.- 8. Plutonium Burning in CANDU.- 9. The Safety Criteria and VVER Core Modification for Weapon Plutonium Utilization.- 10. A Plutonium-Fueled PWR 2000.- 11. Potential for Use of All-MOX Fuel in Existing and Evolutionary/Advanced LWRs in the United States.- 12. Use of Mixed Oxide Fuel in Existing Light Water Reactors in Germany.- 13. Japanese Nuclear Fuel Recycle Plutonium Utilization-Policy.- 14. Use of Plutonium in the UK.- 15. MOX Fuel Utilization in ExistinTable of ContentsPreface. 1: Nuclear Material Management. 1. Management of Plutonium in Russia; N.N. Egrov, V.M. Murogov, V.S. Kagramanian, M.F. Troyanov, V.M. Poplavski, V.I. Matveev. 2. Overview Long-Term Disposition Options for Plutonium: Rational Management of Excess Weapons Plutonium; E.R. Merz. 3. Basic Technological Solutions for Plutonium Management at the RT-2 Plant; D.N. Bykhovski. 4. Disposition of Surplus Separated Plutonium: Influence of Interim Storage of Plutonium; A. Decressin, E. vanden Bemden. 2: Safeguards. 5. Security and Safeguards Aspects of Nuclear Material Handling in Russia; G.M. Pshakin, A.N. Tuzov. 6. Security and Safeguards Aspects of Plutonium Facilities in BNFL, UK; R. Howsley. 7. A Perspective on Safeguarding and Monitoring Excess Military Plutonium; W.G. Sutcliffe. 3: MOX Fuel Use. 8. Plutonium Burning in CANDU; P.G. Boczar, S. Kupca, P.J. Fehrenbach, A.R. Dastur. 9. The Safety Criteria and VVER Core Modification for Weapon Plutonium Utilization; I.K. Levina, V.V. Saprykin, A.G. Morozov. 10. A Plutonium-Fueled PWR 2000; P. Barbrault. 11. Potential for Use of All-MOX Fuel in Existing and Evolutionary/Advanced LWRs in the United States; C.E. Walter. 12. Use of Mixed Oxide Fuel in Existing Light Water Reactors in Germany; W. Thomas. 13. Japanese Nuclear Fuel Recycle: Plutonium Utilization Policy; T. Yamano. 14. Use of Plutonium in the UK; P. Wilcox. 15. MOX Fuel Utilization in Existing German LWRs: Design and Safety Aspects, Core Performance, and Irradiation Experience; G.J. Schlosser. 16. Development of Fast Reactor Core for Weapons Grade Plutonium Utilization; I.Y. Krivitski, V.I. Matveev. 17. Irradiation Experience and Post-Irradiation Examination Results for MOX Pellet Fuel of Fast Reactors; L. Zabudko, L. Moseev, L. Mamaev, S. Porollo. 4: MOX Fuel Fabrication. 18. Commercial MOX Fuel Fabrication and Irradiation Experience in Belgium; Y. Vanderborck, D. Haas, P. Deramaix, A. Vandergheynst. 19. Plutonium Utilization Experience in Japan; K. Kaneda. 20. Development and Fabrication Experience of MOX Fuel in the UK; K. Alldred. 21. Manufacturing Experience on Pelletized Mixed Oxide (MOX) Fuel for Fast Reactors; S. Antipov, V. Astafiev, L. Borisov, T. Menshikova, F. Reshetnikov, V. Revjakin, B. Zakharkin. 22. MOX Fuel Technology and MOX Performance in Germany; Plutonium Handling Experience; J. Krellmann. 23. MOX in France: Domestic Programme and MELOX Plant; J.-L. Nigon, C. Golinelli. 24. Experience on Development and Production of Vibropac MOX Fuel for Fast Reactors; A.A. Mayorshin, O.V. Skiba, V.A. Tzykanov. 25. Thermal and Fast MOX-Fuel from One Plant: Advantages and Limitations; W. Stoll. 5: Summary of Workshop Presentations. 6: NATO Workshop Summary Evaluation. Index.

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Book SynopsisProceedings of the NATO Advanced Research Workshop, St. Petersburg, Russia, May 14-17, 1995Table of ContentsPreface. Session I: Safe Disposal of Weapons Plutonium. 1. Weapons Plutonium Management: The Present Situation, the Methods and the Prospects; A.I. Karelin. 2. Retrievability and Safeguards Concerns Regarding Plutonium in Geological Repositories; J. Swahn. 3. Multibarriers: Their Efficacy Against Intentional Intrusion into a Geological Repository to Retrieve Disposed Plutonium; E.R. Merz. 4. Prospects for Using Plutonium as a Fuel in Russia; V.N. Mikhailov, et al. 5. Plutonium Handling and Vitrification: Main Process Steps and their Cost Evaluation; E. Trauwert, M. Demonie. Session 2: Product Forms. 6. Dissolution of Materials Containing Metal Plutonium and Oxidized Forms of Plutonium; G.P. Nikitina, et al. 7. Crystalline Ceramics: Waste Forms for the Disposal of Weapons Plutonium; R.C. Ewing, et al. 8. The Crystalline Host-Phases for Immobilization of Weapons Plutonium and Waste Actinides; B.E. Burakov, et al. 9. On the Long-Term Storage of Weapons Plutonium in Form of Criticality-Free Ceramics Containing Lithium; J.A. Trutnev, et al. 10. Incorporation of Pu and other Actinides in Borosilicate Glass and in Waste Ceramics; Hj. Matzke, J. van Geel. 11. Feasibility of Rock-Like Fuel and Glass Waste Forms for Disposal of Weapons Plutonium; H. Furuya, et al. 12. Possible Ways of the Weapon Plutonium Processing to Produce the Steady Glass Materials Suitable for Further Safe Disposal; Y.I. Matyunin, et al. 13. Management of Operational Waste from MOX Fuel Plants; F.W. Ledebrink. Session 3: Vitrification Technology. 14. SRS Vitrification Studies in Support of the U.S. Program for Disposition of Excess Plutonium; G.G. Wicks, et al. 15. On the Feasibility of Vitrifying High-Level Liquid Waste Containing High Amounts of Plutonium; M. Demonie, H. Cuyvers. 16. Vitrification of Weapons Plutonium: A Hypothetic Option or a Real Way to Solve the Problem; A.S. Aloy, E.B. Anderson. 17. Vitrification of Plutonium for Disposal; J.A.C. Marples. 18. French Appraisal of the Vitrification Option. Weapons Plutonium &endash; or how to get rid of it! A. Jouan. 19. Safety Aspects with Regard to Plutonium Vitrification Techniques; L.W. Gray, T. Kan. Session 4: Disposal in Deep Boreholes. 20. Disposition of Radionuclides in Deep Geological Formations either in Containers or Vitrified Form; T.A. Goupalo. 21. Disposition of Plutonium in Deep Boreholes; W.H. Halsey, et al. Session 5: Long Term Safety Aspects. 22. The Process of the Equipment and Room Surface Pu- Decontamination and Means to Prevent their Contamination; A.B. Pavlov, Ye.I. Yulikov. 23. Technical Basis for Pu Safeguard Practices, Handling and Disposal, PERLA and TAME Experiences; H. Dworschak. 24. Long-Term Safety Aspects of Geological Disposal of Large Quantities of Plutonium; B. Baltes. 25. MPC&A for Plutonium Disposition in the Russian Federation; W.G. Sutcliffe. 26. Ecological Safety Aspects with Regard to Plutonium Disposal; V.F. Menschikov. 6. Summary of Workshop Presentations. 7. NATO Workshop Summary evaluation. Index.

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Book SynopsisProceedings of the NATO Advanced Research Workshop, Moscow, Russia, June 9-22, 1995Table of ContentsPreface. Current Status of Nuclear Submarine Decommissioning. Problems of Nuclear Submarine Decommissioning and Recycling; N.I. Shumkov. Worldwide Overview of Nuclear Submarine Decommissioning Plans and Issues; P.L. Ølgaard. Overview of Nuclear Submarine Inactivation and Scrapping/Recycling in the United States; M. MacKinnon III, J.G. Burritt. French Strategy for Disposal of Nuclear Powered Ships and Spent Fuel; A. Masurel. Conceptual Approaches to Decommissioning, Dismantlement, and Utilization of Nuclear Submarines. Basics of the Concept of Reactor Compartment Handling (Including Off-Normal) when Recycling Nuclear Submarines. Top-Priority R&D; V.V. Borisov, et al. Basic Approaches to the Problem of Recycling of Russian Nuclear Submarines; Ye. Gorigledjan. Major Directions of Recycling Power Compartments from Nuclear Submarines; N.I. Gherassimov. Conceptual Approach to Recycling of Nuclear Submarines and Solid Radioactive Waste Produced; L.V. Kizhnerov, et al. Decommissioning and Recycling of Nuclear Submarines and Other Nuclear Powered Ships and Vessels; S.D. Gavrilov, et al. Radioecological Problems Related to Disassembly and Recycling of Decommissioned Nuclear Submarines; V.V. Dovgusha, et al. An Alternative Concept for Recycling Nuclear Submarines of the Russian Federation Navy; P.L. Smirnov. Situation with Decommissioning, Dismantlement and Recycling of Nuclear Submarines in Russia; V.S. Topilin. Nonbudget Financing of the Nuclear Submarine Recycling Problem; F. Matsakyan. Radioactive Material and Waste Treatment Problems. Radioactive Waste Reprocessing in Nuclear Submarine Recycling; G.M. Chechelnitsky, et al. Liquid Waste Processing; P.C. Childress, A.P. Zotov. Principles of HandlingDecommissioned Ship Reactors; G.A. Gladkov, et al. Issues of Policy Integration in Solving the Problems of Nuclear Submarines Decommissioning; V.G. Iljin, et al. Decommissioning of Nuclear Submarines: Waste Minimization by Recycling; S. Menon. Systems Approach for Safe Handling and Quality Assurance in Waste Management: Conditioning, Transport, Storage, Disposal, and Safeguards; E.R. Merz. Problems of Decontamination and Reprocessing of Materials, Equipment and Radioactive Waste from Nuclear Submarines Being Recycled; B.I. Berezhko, et al. Disposal of High-Level Waste Through Underground Nuclear Explosions in the Novaya Zemlya Archipelago; V.N. Klimenko, et al. Experience with and Technologies for Nuclear Submarine Decommissioning, Dismantlement and Utilization. Experience of Nuclear Submarine Recycling at `Nerpa' Ship Repairing Plant; V.N. Zinovenko. On Problems of Recycling Nuclear Submarines at `Zvezda' Plant; V.A. Maslakov. Problems of Nuclear Submarine Recycling and Environmental Protection; Yu.K. Ivanov. Safety Issues when Handling Spent Nuclear Fuel and Radioactive Waste in the Pacific Fleet of the Russian Federation; V.A. Danilyan, V.L. Vysotsky. Decommissioning Plan for Paldiski Nuclear Facilities; H. Putnik, T. Grochowski, Jr. Review of Key Decontamination and Dismantlement Technologies; W.J. Manion. Overview of Defueling Approaches used to Deal with Reactors that have Major Core Damage; N.M. Cole, Jr. A Consortium Approach to Nuclear Plant Material Recycle and the Stabilization of Nuclear Naval Vessels and Waste Materials; L. Duffy. Cementation of Equipment and Power Compartment Rooms as an Ecologically Safe Approach to Decommissioning, Recycling and Burial of Nuclear Submarines; N.I. Aleksandrov. Recycling of Objects by Explosive Pro

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Book SynopsisHowever, the absence of rigorous meth­ ods of calculations of many particle nuclear systems with strong interaction makes it necessary to use macroscopic nuclear models to describe particular nuclear properties.Table of ContentsPreface. References. 1. Nucleons and Nuclear Forces. 2. Few-Nucleon Systems. 3. Nuclear Matter. 4. Shells in Nuclei. 5. Rotation and Vibrations of Nuclei. 6. The Pairing of Nucleons. 7. Quark Model of Nucleus. Index.

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Book SynopsisProceedings of the NATO Advanced Research Workshop, Detroit, U.S.A., April 24-27, 1996Table of ContentsPreface. Yosh Maruyama - Father of Neutron Brachytherapy; J. Feola. I. Production and Physical Properties of Californium Sources. II. Brachytherapy of Gynaecological Tumors. III. Brachytherapy of Head and Neck Tumors. IV. Brachytherapy of Rectal Tumors and Sarcomas. V. Dosimetry, Radiobiology and Treatment Planning of Mixed Neutron-Photon Radiation. VI. Source Design and Delivery. Subject Index.

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Book SynopsisThe transuranium elements: From neptunium and plutonium to element 112.- Solid state chemistry and thermophysical properties of the actinides.- Electronic structure of the actinide elements.- Bulk properties of light actinides from first principles.- 5f-Electrons localization of the actinide metals, ?-plutonium case.- Lattice relaxation and the stability of plutonium-based alloys and intermetallics.- Electronic structure and structural stability of uranium dioxide.- Synthesis and crystal structure of new quaternary silicides of uranium.- Structural chemistry of new quaternary germanides of uranium.- Main features of improvement of existing NPP units and creation of new ones in Russia: Principal safety aspects.- Conception of VVER reactors with coated particles.- Improvement of the models and codes for RBMK neutronic calculations.- Nuclear heating power plant technical safety decisions.- Modeling of the experiments with natural circulation of a molten fluoride salt fuel.- Geological disTable of ContentsPreface. Fundamental Physics and Chemistry of the Actinides. The Transuranium Elements: From Neptunium and Plutonium to Element 112; D.C. Hoffman. Solid State Chemistry and Thermophysical Properties of the Actinides; M. Beauvy. Electronic Structure of the Actinide Elements; B. Johansson. Bulk Properties of Light Actinides from First Principles; J. Kollár, et al. 5f-Electrons Localization of the Actinide Metals, delta-Plutonium Case; M. Penicaud. Lattice Relaxation and the Stability of Plutonium-Based Alloys and Intermetallics; J.D. Becker, et al. Electronic Structure and Structural Stability of Uranium Dioxide; S.L. Dudarev, et al. Synthesis and Crystal Structure of New Quaternary Silicides of Uranium; P.S. Salamakha, O.L. Sologub. Structural Chemistry of New Quaternary Germanides of Uranium; O.L. Sologub, P.S. Salamakha. Reactor Operations. Main Features of Improvement of Existing NPP Units and Creation of New Ones in Russia: Principal Safety Aspects; L.N. Phalkovski. Conception of VVER Reactors with Coated Particles; E.I. Grishanin, L.N. Phalkovski. Improvement of the Models and Codes for RBMK Neutronic Calculations; J.V. Alimov, et al. Nuclear Heating Power Plant Technical Safety Decisions; P.V. Berliaev, et al. Modeling of the Experiments with Natural Circulation of a Molten Fluoride Salt Fuel; K. Mikitiouk, et al. Waste Disposal and Repositories. Geological Disposal of High Level Radioactive Waste; V.S. Tsyplenkov. Spent Fuel Characteristics and Disposal Considerations; V.M. Oversby. Thermochemistry of Crystalline and Amorphous Phases Related to Radioactive Waste; A. Navrotsky. Potential Long Term Disposal of Plutonium in the Stockpile; J.T. Waber. Application ofRadiochemical, Accelerator-Based and Surface Analytical Techniques to the Investigation of the U- and Th-Interaction with Tectosilicate Minerals; P. Misaelides, et al. Lanthanide Oxalates as a Possible Form of Intermediate Separation for Long-Lived Fission-Product Nuclides; G. Kolonin. Interactions of Radionuclide with Hard Rock; V. Buňatová. Actinides in the Environment. Radionuclide Dispersal Pathways: Some General Considerations and Examples; P.I. Mitchell. Fission Products and Transuranic Elements Released into the Environment During the Chernobyl Accident; A.A. Borovoi, S.L. Gavrilov. Remediation of the Chernobyl Accident Site; S.A. Bogatov. Radioactive Waste and Contamination in the Arctic Regions &endash; Perspectives on the Impact on its Indigenous Peoples; M. Stenbaek. Fate and Transport of Plutonium in Forest Ecosystems: Assessment Using the FORESTPATH Model; I. Linkov, et al. Plutonium Content in Black Sea Sediments and Algae; A.S. Strezov, T.T. Stoilova. Uranium in the Environment in Surrounding Areas of the Romanian Nuclear Power Plant During the Pre-Operational Period; N. Panuescu, et al. Use of High Gradient Magnetic Separation for Actinide Applications; L.R. Avens, et al. Actinides in Portugal; V. Marques. Social and Psychological Sources of the Chernobyl Accident; O.V. Konovalova. Indices.

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Book SynopsisOpening the Workshop-Welcome and Introductions.- 1. Remarks of US Representative Mac Thornberry.- Nuclear Materials Safety Management: Framework and Overview.- 2. Relationship of Past US/RF Nuclear Material Safety Management Activities to Workshop Goals.- 3. Toward An Integrated Nuclear Materials Safety Management Approach in the United States and Russia.- 4. Implementing a Nuclear Materials Safety Management Program in the US and Russia.- 5. Nuclear Materials Safety Management: US Perspectives.- 6. Problem of Safe Management of Radioactive Wastes in Russia.- 7 The System of Safety Assurance for Facilities of the Ministry of Atomic Energy of the Russian Federation During Normal Operations and Emergencies.- Overview of Plutonium Storage and Transportation Safety Issues.- 8. Stabilizing Plutonium to Reduce Risk to the Public and Workers.- 9. Long-term Storage of Plutonium.- 10. Technologic Safety Assurance for Plutonium to MOX Conversion.- 11. Principles and Measures for Nuclear Safety iTable of ContentsForeword; K.L. Peddicord. Preface; N. Schulte. Opening the Workshop - Welcome and Introductions. Nuclear Materials Safety Management: Framework and Overview. Overview of Plutonium Storage and Transportation Safety Issues. MOX Fabrication and Transportation. Spent Fuel Storage Issues and Other Nuclear Materials Safety Topics. Meeting of the Nuclear Group on the Amarillo National Resource Center for Plutonium. Strategy for the Nuclear Materials Safety Management Initiative. Ongoing Programs. Planning for the Nuclear Materials Safety Management Initiative. Appendix. Author and Subject Index.

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Book SynopsisProceedings of the NATO Advanced Study Institute, Dubna, Russia, May 18-28, 1998Table of ContentsPreface. Opening session; V.G. Kadyshevsky, et al. I: Nuclear Separation Methods and Technologies: 1944-1998. Overview of Chemical Separation Methods and Technologies; G.R. Choppin. Review of Historical Development and Application of Separation Technologies in Russia; V.N. Romanovsky. Reprocessing of Nuclear Fuel: Overview/Critique of the Worldwide Experience and Engineering/Technology Challenges for Separations; R.G. Wymer. II: Nuclear Separation Methods and Technologies: 1999-?. Technology Needs for Actinide and Technetium Separations Based on Solvent Extraction, Ion Exchange and Other Processes; G.J. Jarvinen. Review of Non-Aqueous Nuclear Fuel Reprocessing and Separation Methods. (View on World Experience from Dimitrovgrad); A.V. Bychkov, O.V. Skiba. Review of Possible Technologies for Actinide Separation Using Other Extractants than TBP; C. Musikas. Studies of the Chemistry of Transactinides by Fast Separation Techniques; I. Zvára. III:Technology Needs for Nuclear Waste Processing. New Extraction Technologies for Management of Radioactive Wastes; V.V. Babain, A.Y. Shadrin. Application of New Inorganic-Organic Composite Absorbers with Polyacrylonitrile Binding Matrix for Separation of Radionuclides from Liquid Radioactive Wastes; J.John, et al. R&D Needs of Chemical Separation Technologies for Nuclear Wastes from the Perspective of Federal Governmental Programs of Russia; M. Khankhasayev, A.V. Komarov. Nuclear Waste Management: A Bioremediation Approach; H. Eccles. IV: Nuclear Wastes and Environment. Up-to-date Radioecological Situation around the `Mayak' Nuclear Facility; B.F. Myasoedov, E.G. Drozhko. The Environmental Impacts of Uranium Mining and Milling and the Methods of theirReduction; J. Beneš. Role of Humics in Actinide Behavior in Ecosystems; G.R. Choppin. V: Risk Assessment and Safety Issues. Risk Assessment for Chemicals & Radionuclides: Some Characteristics, Similarities and Differences; C.M. Teaf. The View from Russia of the Soviet-Designed Reactor Safety Program of the U.S. Department of Energy; D.W. Wester. Glossary. List of Abbreviations. Index.

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Book SynopsisI. Nuclear Separation Methods and Technologies: 1944 1998.- Overview of Chemical Separation Methods and Technologies.- Review of Historical Development and Application of Separation Technologies in Russia.- Reprocessing of Nuclear Fuel: Overview/Critique of the Worldwide Experience and Engineering/Technology Challenges for Separations.- II. Nuclear Separation Methods and Technologies: 1999 - ?.- Technology Needs for Actinide and Technetium Separations Based on Solvent Extraction, Ion Exchange and Other Processes.- Review of Non-Aqueous Nuclear Fuel Reprocessing and Separation Methods. (View on World Experience from Dimitrovgrad).- Review of Possible Technologies for Actinide Separation Using Other Extractants than TBP.- Studies of the Chemistry of Transactinides by Fast Separation Techniques.- III. Technology Needs for Nuclear Waste Processing.- New Extraction Technologies for Management of Radioactive Wastes.- Application of New Inorganic-Organic Composite Absorbers with Polyacrylonitrile Binding Matrix for Separation of Radionuclides from Liquid Radioactive Wastes.- R&D Needs of Chemical Separation Technologies for Nuclear Wastes from the Perspective of Federal Governmental Programs of Russia.- Nuclear Waste Management: A Bioremediation Approach.- IV. Nuclear Wastes and Environment.- Up-to-date Radioecological Situation around the Mayak Nuclear Facility.- The Environmental Impacts of Uranium Mining and Milling and the Methods of their Reduction.- Role of Humics in Actinide Behavior in Ecosystems.- V. Risk Assessment and Safety Issues.- Risk Assessment for Chemicals & Radionuclides: Some Characteristics, Similarities and Differences.- The View from Russia of the Soviet-Designed Reactor Safety Program of the U.S. Department of Energy.- List of Abbreviations.Table of ContentsPreface. Opening session; V.G. Kadyshevsky, et al. I: Nuclear Separation Methods and Technologies: 1944-1998. Overview of Chemical Separation Methods and Technologies; G.R. Choppin. Review of Historical Development and Application of Separation Technologies in Russia; V.N. Romanovsky. Reprocessing of Nuclear Fuel: Overview/Critique of the Worldwide Experience and Engineering/Technology Challenges for Separations; R.G. Wymer. II: Nuclear Separation Methods and Technologies: 1999-?. Technology Needs for Actinide and Technetium Separations Based on Solvent Extraction, Ion Exchange and Other Processes; G.J. Jarvinen. Review of Non-Aqueous Nuclear Fuel Reprocessing and Separation Methods. (View on World Experience from Dimitrovgrad); A.V. Bychkov, O.V. Skiba. Review of Possible Technologies for Actinide Separation Using Other Extractants than TBP; C. Musikas. Studies of the Chemistry of Transactinides by Fast Separation Techniques; I. Zvára. III:Technology Needs for Nuclear Waste Processing. New Extraction Technologies for Management of Radioactive Wastes; V.V. Babain, A.Y. Shadrin. Application of New Inorganic-Organic Composite Absorbers with Polyacrylonitrile Binding Matrix for Separation of Radionuclides from Liquid Radioactive Wastes; J.John, et al. R&D Needs of Chemical Separation Technologies for Nuclear Wastes from the Perspective of Federal Governmental Programs of Russia; M. Khankhasayev, A.V. Komarov. Nuclear Waste Management: A Bioremediation Approach; H. Eccles. IV: Nuclear Wastes and Environment. Up-to-date Radioecological Situation around the `Mayak' Nuclear Facility; B.F. Myasoedov, E.G. Drozhko. The Environmental Impacts of Uranium Mining and Milling and the Methods of theirReduction; J. Beneš. Role of Humics in Actinide Behavior in Ecosystems; G.R. Choppin. V: Risk Assessment and Safety Issues. Risk Assessment for Chemicals & Radionuclides: Some Characteristics, Similarities and Differences; C.M. Teaf. The View from Russia of the Soviet-Designed Reactor Safety Program of the U.S. Department of Energy; D.W. Wester. Glossary. List of Abbreviations. Index.

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Book SynopsisProceedings of the NATO Advanced Research Workshop, Cracow, Poland, 9-13 November 1998Table of ContentsForeword. Acknowledgements. Environmental Issues Associated with Nuclear Disarmament. 1. Post-Arms Race Clean-Up Effort in the United States of America; T.E. Baca, et al. 2. Some Comparisons of Plutonium-Bearing Radwaste Management in the USA and Russia; V.F. Peretroukhine, C.H. Delegard. 3. International Training Centre for Analysing Nuclear and Radiation Safety; Y. Cherepnin, Y. Istomin. 4. Radioactive Contamination and Waste Management in the Former Soviet Union. Opportunities for Studying Anthropogenic Analogues of Radioactive-Waste Repositories; S.M. Wickham, J.L. Knight. 5. Legacy of Actinides in the Weapons Complex; G.R. Choppin. Preventing Proliferation of Nuclear Materials. 6. Fuel Cycle of Large-Scale Nuclear Energy (BREST-1200) with Non-Proliferation of Plutonium and Equivalent of Radioactive Waste; A.V. Lopatkin, V.V. Orlov. 7. Ceramic Waste Forms for Excess Weapons Plutonium; W. Lutze, et al. 8. Long-Term Solutions to Managing Nuclear Waste in the Russian Federation; N.P. Laverov, et al. 9. Thorium Phosphates as Matrices for Radionuclide Immobilisation; V. Brandel, et al. 10. Modeling Spent Nuclear UO2-Fuel Dissolution Under Repository Conditions; J. De Pablo, et al. Nuclear Facility Decontamination and Decommissioning. 11. IAEA Programme on the Identification and Remediation of Contaminated Nuclear Sites; V.S. Tsyplenkov, et al. 12. Electro-Physical Methods of Decontamination of Radioactive Equipment Surfaces; M. Krymsky, et al. 13. Electro-Chemical Methods for Decontaminating and Treating Radioactive Waste Resulting From Weapons-Facilities Clean-Up; S. Marczak, et al. 14. Decommissioning of Nuclear Installations and Dismantling Techniques; J.L. Díaz-Díaz. 15. Packaging of Plutonium Metal and Oxide in the ARIES Project; C.K. Rofer, et al. Applying Nuclear Weapons Expertise to Civilian Use. 16. Removal and Use of the Large-Scale Radioactive Equipment of Nuclear Submarines; M.E. Netecha, V.A. Mazokin. 17. Nuclear Technology for Cleaning Coal Emissions. Example of International Cooperation leading to the Application of a Nuclear Technology to the Civilian sector; A.G. Chmielewski, Z. Zimek. 18. Environmental Aspects of the Loss of Nuclear-Powered Ships; A.V. Nikitin, V.K. Ulasevich. 19. U.S.-Russian Weapons Sites Collaborations on Environmental Problems; C.F.V. Mason. 20. Adsorbents for Stabilising Radionuclides from Solution; V.I. Plotnikov, et al. Treatment of Nuclear Waste and Remediation of Contaminated Sites. 21. Advanced Thermo-Chemical Technologies for the Treatment of Radioactive and Biological Waste; M.I. Ojovan, et al. 22. Clean-Up of Nuclear Weapons Facilities; C.F.V. Mason. 23. Risk-Assessment Model for Evaluating Environmental Remediation Options at the Stráž Underground Uranium Leaching Site; P. Lietava. 24. Soil-to-Plant Transfer of Radionuclides; K. Bujtás, P. Szerbin. 25. Radiological Characterisation of Low- and Medium-Level Nuclear Wastes; J.A. Suárez, et al. 26. PIMS: A Simple Technology for Clean-Up of Heavy Metals and Radionu

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Book SynopsisEnvironmental Issues Associated With Nuclear Disarmament.- 1. Post-Arms Race Clean-Up Effort in the United States of America.- 2. Some Comparisons of Plutonium-Bearing Rad waste Management in the USA and Russia.- 3. International Training Centre for Analysing Nuclear and Radiation Safety.- 4. Radioactive Contamination and Waste Management in the Former Soviet Union; Opportunities for Stydying Anthropogenic Analogues of Radioactive-Waste Repositories.- 5. Legacy of Actinides in the Weapons Complex.- Preventing Proliferation of Nuclear Materials.- 6. Fuel Cycle of Large-Scale Nuclear Energy (BREST-1200) with Non-Proliferation of Plutonium and Equivalent Disposal of Radioactive Waste.- 7. Ceramic Waste Forms for Excess Weapons Plutonium.- 8. Long-Term Solutions to Managing Nuclear Waste in the Russian Federation.- 9. Thorium Phosphates as Matrices for Radionuclide Immobilisation.- 10. Modeling Spent Nuclear UO2-Fuel Dissolution Under Repository Conditions.- Nuclear Facility Decontamination and Decommissioning.- 11. IAEA Programme on the Identification and Remediation of Contaminated Nuclear Sites.- 12. Electro-physical Methods of Decontamination of Radioactive Equipment Surfaces.- 13. Electro-Chemical Methods for Decontaminating and Treating Radioactive Waste Resulting From Weapons-Facilities Clean-Up.- 14. Decommissioning of Nuclear Installations and Dismantling Techniques.- 15. Packaging of Plutonium Metal and Oxide in the ARIES Project.- Applying Nuclear Weapons Expertise To Civilian Use.- 16. Removal and Use of the Large-Scale Radioactive Equipment of Nuclear Submarines.- 17. Nuclear Technology for Cleaning Coal Emissions; Example of International Cooperation Leading to the Application of a Nuclear Technology to the Civilian Sector.- 18. Environmental Aspects of the Loss of Nuclear-Powered Ships.- 19. U.S.-Russian Weapons Sites Collaborations on Environmental Problems.- 20. Adsorbents for Stabilising Radionuclides from Solution.- Treatment of Nuclear Waste And Remediation of Contaminated Sites.- 21. Advanced Thermo-Chemical Technologies for the Treatment of Radioactive Organic and Biological Waste.- 22. Clean-Up of Nuclear Weapons Facilities.- 23. Risk-Assessment Model for Evaluating Environmental Remediation Options at the Stráž Underground Uranium Leaching Site.- 24. Soil-to-Plant Transfer of Radionuclides.- 25. Radiological Characterisation of Low- and Medium-Level Nuclear Wastes.- 26. PMS: A Simple Technology for Clean-Up of Heavy Metals and Radionuclides Throughout the World.- 27. Inorganic Ion Exchangers as Selective Adsorbents and Potential Primary Barriers for Radionuclides.- Nuclear Waste Management and Disposal.- 28. Use of Conservant F' for Radioactive and Chemical Solid Waste Disposal.- 29. Managing Institutional LILW in Central Russia: Operational Experience.- 30. Aspects of the Migration of Long-Lived Radionuclides from Underground Waste Repositories.- 31. Systems Approach to the Safety Evaluation of Radioactive Waste Management Options.- 32. Expertise in Low-Level Radioactive Waste Management in Belarus.- 33. Radionuclide Co-Precipitation Studies Under Repository Conditions.- Long-Term Surveillance of Monitoring of Nuclear Materials.- 34. Measurements and Modelling of Radionuclide Migration into Various Types of Soil.- 35. Sand Reactor.- 36. Advanced Portable Thermoluminescent Dosimeter System for Monitoring Environmental Radiation.- 37. Speciation in Water Released From Mining and Milling Facilities.- Attachment A Technologies and Needs for Potential Long-Term Collaborations.- Attachment B Nato AdvancedResearch Workshop Participant List.- Author and Subject Index.Table of ContentsForeword. Acknowledgements. Environmental Issues Associated with Nuclear Disarmament. 1. Post-Arms Race Clean-Up Effort in the United States of America; T.E. Baca, et al. 2. Some Comparisons of Plutonium-Bearing Radwaste Management in the USA and Russia; V.F. Peretroukhine, C.H. Delegard. 3. International Training Centre for Analysing Nuclear and Radiation Safety; Y. Cherepnin, Y. Istomin. 4. Radioactive Contamination and Waste Management in the Former Soviet Union. Opportunities for Studying Anthropogenic Analogues of Radioactive-Waste Repositories; S.M. Wickham, J.L. Knight. 5. Legacy of Actinides in the Weapons Complex; G.R. Choppin. Preventing Proliferation of Nuclear Materials. 6. Fuel Cycle of Large-Scale Nuclear Energy (BREST-1200) with Non-Proliferation of Plutonium and Equivalent of Radioactive Waste; A.V. Lopatkin, V.V. Orlov. 7. Ceramic Waste Forms for Excess Weapons Plutonium; W. Lutze, et al. 8. Long-Term Solutions to Managing Nuclear Waste in the Russian Federation; N.P. Laverov, et al. 9. Thorium Phosphates as Matrices for Radionuclide Immobilisation; V. Brandel, et al. 10. Modeling Spent Nuclear UO2-Fuel Dissolution Under Repository Conditions; J. De Pablo, et al. Nuclear Facility Decontamination and Decommissioning. 11. IAEA Programme on the Identification and Remediation of Contaminated Nuclear Sites; V.S. Tsyplenkov, et al. 12. Electro-Physical Methods of Decontamination of Radioactive Equipment Surfaces; M. Krymsky, et al. 13. Electro-Chemical Methods for Decontaminating and Treating Radioactive Waste Resulting From Weapons-Facilities Clean-Up; S. Marczak, et al. 14. Decommissioning of Nuclear Installations and Dismantling Techniques; J.L. Díaz-Díaz. 15. Packaging of Plutonium Metal and Oxide in the ARIES Project; C.K. Rofer, et al. Applying Nuclear Weapons Expertise to Civilian Use. 16. Removal and Use of the Large-Scale Radioactive Equipment of Nuclear Submarines; M.E. Netecha, V.A. Mazokin. 17. Nuclear Technology for Cleaning Coal Emissions. Example of International Cooperation leading to the Application of a Nuclear Technology to the Civilian sector; A.G. Chmielewski, Z. Zimek. 18. Environmental Aspects of the Loss of Nuclear-Powered Ships; A.V. Nikitin, V.K. Ulasevich. 19. U.S.-Russian Weapons Sites Collaborations on Environmental Problems; C.F.V. Mason. 20. Adsorbents for Stabilising Radionuclides from Solution; V.I. Plotnikov, et al. Treatment of Nuclear Waste and Remediation of Contaminated Sites. 21. Advanced Thermo-Chemical Technologies for the Treatment of Radioactive and Biological Waste; M.I. Ojovan, et al. 22. Clean-Up of Nuclear Weapons Facilities; C.F.V. Mason. 23. Risk-Assessment Model for Evaluating Environmental Remediation Options at the Stráž Underground Uranium Leaching Site; P. Lietava. 24. Soil-to-Plant Transfer of Radionuclides; K. Bujtás, P. Szerbin. 25. Radiological Characterisation of Low- and Medium-Level Nuclear Wastes; J.A. Suárez, et al. 26. PIMS: A Simple Technology for Clean-Up of Heavy Metals and Radionu

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Book SynopsisThis book is intended as an introduction to radioactivity and aerosols for the scientifically literate reader who has had no previous exposure to either of these subjects.Table of ContentsPreface. 1. Radioactivity and Aerosols: An Introduction. 2. Radioactivity and the Interaction of Nuclear Radiation with Matter. 3. Measurement of Nuclear Radiation and Radioactivity. 4. Physical Behavior of Aerosol Particles. 5. Aerosol Measurement. 6. Radioactive Aerosols: Atmospheric Sources and Indoor Models. 7. Radioactive Aerosols: Tracer Applications and Outdoor Transport. Appendix A - Units of Measurement for Radioactivity and Aerosols. Appendix B - Explanation of Symbols. Cited References. Index.

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Book Synopsis1 Radioactivity and Aerosols: An Introduction.- 1.1 Introduction.- 1.2 The importance of aerosols in environmental and atmospheric science.- 1.3 Nuclear radiation and decay.- 1.4 Size classification of aerosol particles.- 1.5 Emission sources and chemical properties of aerosol particles.- 1.6 Concentration of radionuclides in the environment.- 1.7 Radioactive aerosols and human health.- 1.8 Supplemental reading.- 1.9 Exercises and problems.- 2 Radioactivity and the Interaction of Nuclear Radiation with Matter.- 2.1 Introduction.- 2.2 Radioactive decay.- 2.3 The interaction of heavy charged particles with matter.- 2.4 The interaction of gamma radiation with matter.- 2.5 Supplemental reading.- 2.6 Exercises and problems.- 3 Measurement of Nuclear Radiation and Radioactivity.- 3.1 Introduction.- 3.2 Use of ionization and atomic excitation to detect nuclear radiation.- 3.3 The Geiger-Mueller detector.- 3.4 Alpha-particle measurement.- 3.5 Gamma-radiation measurement.- 3.6 Supplemental reading.- 3.7 Exercises and problems.- 4 Physical Behavior of Aerosol Particles.- 4.1 Introduction.- 4.2 Motion of aerosol particles relative to the surrounding air mass..- 4.3 Uniform motion and gravitational settling.- 4.4 Diffusion.- 4.5 Refinements to aerosol-particle motion.- 4.6 Recoil and radioactive decay.- 4.7 Aerosol particles in electric fields.- 4.8 Scattering of light by aerosol particles.- 4.9 Supplemental reading.- 4.10 Exercises and problems.- 5 Aerosol Measurement.- 5.1 Introduction.- 5.2 Common techniques of aerosol measurement.- 5.3 Inertial impaction.- 5.4 Filtration.- 5.5 Radioactive aerosols.- 5.6 Examples of radioactive-aerosol measurement.- 5.7 Supplemental reading.- 5.8 Exercises and problems.- 6 Radioactive Aerosols: Atmospheric Sources and Indoor Models.- 6.1 Introduction.- 6.2 Naturally-occurring radioactive aerosols.- 6.3 Anthropogenic radioactive aerosols.- 6.4 Indoor radioactivity.- 6.5 Supplemental reading.- 6.6 Exercises and problems.- 7 Radioactive Aerosols: Tracer Applications and Outdoor Transport.- 7.1 Introduction.- 7.2 Removal of aerosol particles from the atmosphere.- 7.3 Radioactive aerosols as atmospheric tracers.- 7.4 An outdoor box model.- 7.5 The Gaussian plume model.- 7.6 Improvements to the Gaussian plume model.- 7.7 The atmospheric diffusion equation.- 7.8 Supplemental reading.- 7.9 Exercises and problems.- Appendix A Units of Measurement for Radioactivity and Aerosols.- Appendix B Explanation of Symbols.- Cited References.Table of ContentsPreface. 1. Radioactivity and Aerosols: An Introduction. 2. Radioactivity and the Interaction of Nuclear Radiation with Matter. 3. Measurement of Nuclear Radiation and Radioactivity. 4. Physical Behavior of Aerosol Particles. 5. Aerosol Measurement. 6. Radioactive Aerosols: Atmospheric Sources and Indoor Models. 7. Radioactive Aerosols: Tracer Applications and Outdoor Transport. Appendix A - Units of Measurement for Radioactivity and Aerosols. Appendix B - Explanation of Symbols. Cited References. Index.

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Book SynopsisThe Working Group "0ffshore Nuclear Power Plants" was established by the Commission of the European Communities in 1971.Table of Contents1. Terms of Reference.- 2. Introduction.- 3. Literature Review.- 4. Design Criteria.- Siting categories.- Design life.- Hazard.- Design parameters.- Nuclear power station.- Access.- Construction & operation personnel.- Transmission links.- 5. Island Concepts.- Types of island.- Features of island types.- Comparison of island types.- Comparison of concrete & steel.- Conclusions.- 6. Outline Designs.- Floating island.- Semisubmersible.- Gravity platform.- Caisson island.- Fill island.- Caisson retained island.- Protected floating island.- Caisson/fill island.- Caisson/piled island.- Cooling water.- Access.- 7. Construction Methods and Times.- Floating island and semisubmersible.- Gravity platform.- Caisson island.- Fill island.- Caisson retained.- Protected floating island.- Caisson/fill and caisson/piled islands.- Power station development.- 8. Plant Construction Costs.- General.- Floating island.- Semisubmersible.- Fixed island.- Fill island.- Caisson & composite islands.- Summary.- 9. Unit Costs For Islands.- General.- Concrete in islands.- Sandfill.- Natural gravel.- Rockfill.- Filter.- Rock armour.- Concrete in armour units.- Sheet piled quays.- Summary.- 10. Cost Estimates.- General.- Costs of outline designs.- Auxiliary structures.- Access.- Transmission links.- Summary.- 11. Conclusions.- Design criteria.- Types of island.- Siting categories - island suitability.- Timescale.- Production/construction facilities.- Factors affecting overall costs.- Power station weight and layout Summary.- Summary.- 12. Recommendations.- Appendices.- A Technical Annex to Contract No 623-79-12 EC1 UK.- B Draft Information Note.- C Selected Bibliography.- D Water Depths within Study Area.- E Wave Heights within Study Area.- F Wave Forces.- G Tidal Ranges within Study Area.- H Extreme Water Levels.- J Dynamic Stability of Offshore Islands.- K Cooling Water Dispersion.

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Book SynopsisThe pursuit of nuclear fusion as an energy source requires a broad knowledge of several disciplines. These include plasma physics, atomic physics, electromagnetics, materials science, computational modeling, superconducting magnet technology, accelerators, lasers, and health physics. Nuclear Fusion distills and combines these disparate subjects to create a concise and coherent foundation to both fusion science and technology. It examines all aspects of physics and technology underlying the major magnetic and inertial confinement approaches to developing nuclear fusion energy. It further chronicles latest developments in the field, and reflects the multi-faceted nature of fusion research, preparing advanced undergraduate and graduate students in physics and engineering to launch into successful and diverse fusion-related research.Nuclear Fusion reflects Dr. Morse’s research in both magnetic and inertial confinement fusion, working with the world’s top laboratories, and embodies his extensive thirty-five year career in teaching three courses in fusion plasma physics and fusion technology at University of California, Berkeley.Table of ContentsChapter 1 IntroductionFusion as an energy sourceWorld energy supply and demandAvailability of fusion fuelRisk factors for energy sources:Comparative risks of fusion to other energy technologiesProspects for a fusion energy technologyHistorical backgroundChapter 2 Fusion nuclear reactionsCross sections and reactivityResonant and non-resonant fusion reactionsReactivity models for maxwellian distributionsReactivity in beam-maxwellian systemsChapter 3 Energy gain and loss mechanisms in plasmas and reactorsCharged particle heatingOhmic heatingExternal heating methodsRadiation loss:Charge ExchangeReactor energy balanceLawson criterion and QPulsed vs. steady state energy balanceThermal conversion efficiencyBlanketsChapter 4 Magnetic ConfinementMHD fluid equationsPressure balanceMagnetic pressure concept and Z pinch: Bennett pinch theoremInstabilities in Z pinchPerhapsatronTokamak configurationGrad-Shafranov equationNumerical solutionsEffect of flow on equilibriumChapter 5 MHD instabilities Ideal MHDEnergy PrincipleInterchange instabilityKink and sausage instabilityWesson diagram for tokamak stabilityBallooning modesNumerical solutionsResistive MHDMagnetic Islands’ and Rutherford growthMagnetic stochasticity" theory="" and="" transportVlasov equationCollision operators Braginskii transport equationsTimescale hierarchy for electrons and ionsBeam slowing down Chapter 7 Neoclassical effectsPfirsch-Schluter regimeTrapped particlesBootstrap currentNeoclassical tearing modeELMs and MARFEsChapter 8 Waves in plasmaCold plasma dispersion relation: CMA diagramCutoffs and resonancesWarm plasma wavesWKB approximationRay tracing and accessibilityLaser-plasma interactionsChapter 9 RF heating in magnetic fusion devicesIon cyclotron heating: sources, antennas, transmission linesLower hybrid heating: sources, antennas, transmission linesElectron cyclotron heating: sources, antennas, transmission linesIon Bernstein waves and high harmonic fast wavesRF current driveRunaway electronsChapter 10 Neutral beam injectionPositive and negative ion sourcesNeutralization efficiencyChild-Langmuir lawBeam optics calculationsHigh voltage breakdown issuesChapter 11 Inertial confinement Direct vs. indirect driveLasers, optics, frequency doubling and triplingHohlraum designCapsule hydrodynamicsRayleigh-Taylor instabilityElectron preheat and mixHeavy ion driversFast ignitionNumerical simulationsChapter 12 MagnetsSuperconductivityThermal stabilityStress calculationsBending moments and torsional stabilityRadiation damageChapter 13 TritiumHealth issues: HTO vs. HTSievert’s law and leakage calculationsH-D-T separation processesAvailability and costHe-3 recoveryChapter 14 Materials issuesFirst wall: MFE vs. IFEThermal shock and fatigueThermal stress calculationsCoolant compatibilityPlasma-wall interactionRadiation damage: dpa cross sections and He productionEmbrittlement, void swelling, and creepComposite materialsDivertor and limiter designChapter 15 Vacuum systemsCryogenicsCryopumpsScroll pumpsConductance calculationsTransient response of vacuum systemsChapter 16 BlanketsLi vs. LiPb vs. LiO Tritium removalFire safetyressureFission hybrid decay heat issuesChapter 17 Economics and SustainabilityThe cost of moneyMaterial availabilityPlant lifetime considerationSite licensesAccident mitigation Is it “Green?”

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Book SynopsisThis book strives to take stock of current achievements and existing challenges in nuclear verification, identify the available information and gaps that can act as drivers for exploring new approaches to verification strategies and technologies. With the practical application of the systems concept to nuclear disarmament scenarios and other, non-nuclear verification fields, it investigates, where greater transparency and confidence could be achieved in pursuit of new national or international nonproliferation and arms reduction efforts. A final discussion looks at how, in the absence of formal government-to-government negotiations, experts can take practical steps to advance the technical development of these concepts.Table of ContentsForeword.- Acknowledgements.- System Concepts - Structuring an New Verification Approach (Dreicer, Niemeyer, Stein).- Part I Status of Verification Strategies.- History, Status and Challenges for Non-Proliferation and Arms Control Verification (Keir, Persbo).- The Evolution of Safequards (Cooley).- Part II Factors Influencing the Development of a Systems Concept for Verification.- Legal Issues Relating to Risk ans Systems Driven Verification (Carlson).- Verification: The Politics of the Unpolitical (Häckel).- Military Dimensions (Richard).- Strategic Export Control (Sevini, Janssens).- Part III Methods and Models.- NTI Nuclear Security Index: A Model for State-level Approaches to Nonproliferation and Arms Control (Meakrase, Nalabandian).- Formalizing Acquisition Path Analysis (Canty, Listner).- Metrics for Detecting Undeclared Materials and Activities (Kyriakopoulos).- Game Theoretical Models for Arms Control and Disarmament Verification (Avenhaus, Krieger).- Societal Verification for Nuclear Nonproliferation and Arms Control (Gastelum).- Part IV Technologies.- Futures Research as an Opportunity for Innovation in Verification Technologies (Schulze, Grüne, John, Neupert, Thorleuchter).- Attribute Information Barriers (Göttsche, Kirchner).- Minimally Intrusive Approaches to Nuclear Warhead Verification (Glaser, Jie).- Advances in Seismic and Acoustic Monitoring (Altmann).- Radiation Detectors and Instrumentation (Williamson, Preston).- Environmental Signatures and Forensics (Mayer, Wallenius, Aregbem Hedberg).- Part V Information Analysis.- Information Management: The Role of Information Technology in Treaty Verification (Kyriakopoulos).- Enhancing Verification with High-Performance Computing and Data Analytics (Brase, McKinzie, Zucca).- Open Source Analysis in Support to Non-Proliferation: a Systems Thinking Perspective (Renda, Cojazzi, Kim).- Open Source Analysis in Support to Non-Proliferation: a Systems Thinking Perspective (Wolfart).- Remote Sensing Data Processing and Analysis Techniques for Nuclear Non-proliferation (Rutkowski, Niemeyer).- Commercial Satellite Imagery: an Evolving Tool in the Non-proliferation Verification and Monitoring Toolkit (Pabian, Renda, Jungwirth, Kim, Wolfart, Cojazzi, Janssens).- Strategic Trade Analysis for Non-Proliferation (Versino, Cojazzi).- Part VI Applications.- A Systems Approach for Evaluating a Warhead Monitoring System (Chen, DeLand, Edmunds).- Physical Model & Acquisition Path Analysis – Applicability to Nuclear Disarmament Verification (Niemeyer, Rutkowski, Stein).- Investigating Development of Nuclear Arms Control Verification – Requirements at the State Level (Allen, Dreicer, Chen, Niemeyer, Stein),- Appendix.

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Book SynopsisThis book presents a comprehensive overview of Ukraine's nuclear history, beginning from its experiences within the Russian Empire in the early 20th century, through the Soviet period, to the emergence of Ukraine as an independent state that inherited the world’s third-largest nuclear arsenal. The book discusses the development of the nuclear infrastructure on Ukrainian soil and offers a rich and nuanced background of how Ukraine became an important and integrated part of the Soviet nuclear infrastructure. It further analyzes Ukraine's nuclear disarmament based on extensive primary source material and places the Ukrainian nuclear reversal process in a larger international political context where Russia´s, the United States, and other players´ actions are interpreted in the light of the impact on the current nuclear non-proliferation regime. Finally, the book presents the nuclear-related development after the nuclear disarmament. It describes the integration of Ukraine into the international community and the role of nuclear power in the energy mix of the nation today. Concluding, Ukraine´s adaptation to the new security situation after the Russian annexation of Crimea is described and discussed. This volume is a must-read for scholars, researchers, students, and policy-makers interested in a better understanding of Ukraine's nuclear history, the political background of the conflict in Eastern Ukraine, as well as of security studies and international relations in general. The work on this book has been supported by the Swedish Radiation Authority (SSM) in the Nuclear History of Ukraine Project (2015-2019).Trade Review“The real value of this book is that it engages in a thorough and timely manner with some deeply ingrained biases and assumptions.” (Jonathan Hibberd, International Affairs, Vol. 99 (1), 2023)Table of ContentsChapter 1. Introduction: Understanding the Nuclear History of Ukraine.- Chapter 2. Ukraine’s Contribution to The Soviet Union’s Nuclear Programme.- Chapter 3. Nuclear Disarmament of Ukraine.- Chapter 4. Nuclear Energy in Independent Ukraine.- Chapter 5. Conclusion: Lessons to Be Learned.

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Book SynopsisThis complete introduction to plasma physics and controlled fusion by one of the pioneering scientists in this expanding field offers both a simple and intuitive discussion of the basic concepts of this subject and an insight into the challenging problems of current research. In a wholly lucid manner the work covers single-particle motions, fluid equations for plasmas, wave motions, diffusion and resistivity, Landau damping, plasma instabilities and nonlinear problems. For students, this outstanding text offers a painless introduction to this important field; for teachers, a large collection of problems; and for researchers, a concise review of the fundamentals as well as original treatments of a number of topics never before explained so clearly. This revised edition contains new material on kinetic effects, including Bernstein waves and the plasma dispersion function, and on nonlinear wave equations and solitons. For the third edition, updates was made throughout each existing chapter, and two new chapters were added; Ch 9 on “Special Plasmas” and Ch 10 on Plasma Applications (including Atmospheric Plasmas). Table of ContentsIntroduction.- Single-particle motions.- Plasmas as fluids.- Waves in plasmas.- Diffusion and resistivity.- Equilibrium and stability.- Kinetic theory .- Nonlinear effects.- Special plasmas.- Plasma applications.

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Book SynopsisRadioactive particles have been released to the environment from a number of sources, including nuclear weapon tests, nuclear accidents and discharges from nuclear installations. Particle characteristics influence the mobility, biological uptake and effects of radionuclides, hence information on these characteristics is essential for assessing environmental impact and risks. This publication presents a series of papers covering sources and source term characterisation, methodologies for characterizing particles, and the impact of particles on the behaviour of radioactive particles in the environment. Sources covered include the Chernobyl accident, nuclear weapons accidents at Thule and Palomares accident, the discharges from Dounreay and Krashnoyarsk, and depleted uranium in Kosovo and Kuwait. The overall aim is that an increased understanding of particle characteristics and behavior will help to reduce some of the uncertainties in environmental impact and risk assessment for particle contaminated areas.Table of Contents1: Sources and Characterisation.Radioactive Particles Released From Different Nuclear Sources; B.Salbu. Single Particles Handling and Analyses; U.Admon. Characterisation of DU Particles from Kosovo and Kuwait; O.Chr.Lind et al. Formation Of The Radioactive Aerosol Particles During Wildland Fires In Chernobyl Zone And Their Radioecological Impact; V.Yoschenko et al. 2: Ecosystem Transfer.Thule Expedition 2003 Studies on Radioactive Contamination and Particles; S.P.Nielsen et al. Hot Particles in the Floodplain of the Yenisei River; A.Bolsunovsky. Migration of Fuel Particles of Chnpp Fallout and Leached Radionuclides in Soils and Soil-to- Plant System; Y.Ivanov. Dissolution Of Particles Of Irradiated Nuclear Fuel In The Temporary Storages Of Radioactive Waste In Chemobyl Zone: Sources For Radionuclide Migration; V.Kashparov et al. Phenomenon of a Fast Migration of Plutonium Radioisotops in Ground Water: Colloids or Soluble Form? S.Levchuk et al. Restoration Of Radiation Events Of The Past By Antedated Lakes Bottom Sediment Layers; E.Kvasnikova, S.Gordeev. 241am And 137cs In Soils Of The Belarus Part Of The Chernobyl Zone; V.Zabrotsk et al. 3: Databases, Platforms and Measurement Techniques.Database 'Hot Particles'; M.Zhurba et al. The Experimental Platform In Chernobyl: An International Research Polygon In The Exclusion Zone For Soil And Groundwater Contamination; N.van Meir et al. Deconvolution Of Alpha Spectra From Hot Particles; R.Pöllänen et al. The Use of 236U as a Tracer of Irradiated Uranium; V.Mironov et al. 4: Biological Uptake and Risk Assessment.Health Effects Of Dounreay Hot Particles: A Benchmark For The Evaluation Of Doses And Risks; M.W.Charles. The Influence Of Hot Particle Contamination On Models For Radiation Exposures Via The Aquatic Pathway; J.T.Smith et al. Hot Particle Behavior in Cow’s at the Peroral Intake; V.Yoschenko et al. TheContribution Of Hot Particles To Uncertainties In Environmental Impact Assessment; D.Oughton, B.Salbu.

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Book SynopsisThe basic logic is very simple. Countries around the globe have a need for more electrical generating capacity because of increases in population and increases in energy use per capita. The needs are constrained by the requirement that the ba- load energy source be economical, secure, and not emit climate-changing gases. Nuclear power fits this description. Therefore, many countries that have not had a nuclear power program (or only had a small program) see a need to develop one in the future. However, the development of a national nuclear energy program is not so simple. The purpose of the NATO Advanced Research Workshop on Nuclear Power and Energy Security was to contribute to our understanding of how these programs might evolve. The workshop took place 26–29 May 2009 in Yerevan, Armenia. Approximately 50 participants discussed the infrastructure that is needed and some of the reactor options that might be considered. The papers in this book helped define the discussion that took place. The infrastructure that is needed includes a legal framework, a functioning regulator, a plan for waste disposal, a plan for emergency response, etc. These needs were explained and just as importantly, it was explained what international, bilateral, and regional cooperation is available. Although there were many co- tries represented, the Armenian experience was of particular interest because of where the meeting was located. The papers on reactor options covered both innovative and evolutionary designs.Table of ContentsPreface.- RA President’s Message.- Opening Remarks NATO Advanced Research Workshop; D. Diamond.- -Developing The Necessary Infrastructure. IAEA Activities in Support of Countries Considering Embarking on Nuclear Power Programme; O. Akira.-Creating a National Nuclear Regulatory Authority; R. Way.- Building Safeguards Infrastructure; J. McClelland-Kerr et al.- Regulatory Challenges Related To The Licensing Of A New Nuclear Power Plant; M. Maris.- Infrastructure Development Through Civil Nuclear Cooperation; M. Humphrey, A. Burkart.-Nuclear Safety Infrastructure; R. Moffitt.- Upgrading Nuclear Regulatory Infrastructure in Armenia; A. Martirosyan et al.- Seven Principles of Highly Effective Nuclear Energy Programs; Ch. Ferguson, Ph. Reed.- The Case For Nuclear Energy. Nuclear Safety and Energy Security; G. Trosman.-Nuclear Energy and Social Impact; N. Carpintero-Santamaria.-The Role of Nuclear Power in the Reduction of Greenhouse Gas Emissions; A. Baratta.-Nuclear Energy & Energy Security; J. Mamasakhlisi.- Overview Of The Electricity Market Of Estonia And The Plausibility Of Nuclear Energy Production; M. Lehtveer, A. Tkaczyk.-The role of Small and Medium Reactors in the Energy Security of a Country, IRIS Example; N. Cavlina.-- Applicable Technology. Status Report on the Safety of Operating US Nuclear Power Plants; R. Budnitz.- NATO-ASTEC-MATRIX -Research Environment, Information Sharing and MC&A; S. Apikyan et al.- Establishing Control Over Nuclear Materials And Radiation Sources In Georgia; G. Basilia.- Nuclear Energy In Armenia History, Problems, Possibilities And Outlook; G. Sevikya et al.-Development of Nuclear Energy in Armenia; A. Gevorgyan, A.Galstyan.- Some Neutron Absorbing Elements and Devices for Fast Nuclear Reactors Regulation Systems; P. Kervalishvili.- Development of Design of a Radioisotope Switchable Neutron Source and New Portable Detector of Smuggling; L. Meskhi, L.Kurdadze.- New designs of medium power VVER reactor plants; S.B.Ryzhov et al.-National Assessment Study In Armenia Using Innovative Nuclear Reactors And Fuel Cycles Methodology For An Innovative Nuclear Systems In A Country With Small Grid; V. Sargysan et al.- CANDLE Reactor: An Option For Simple, Safe, High Nuclear Proliferation Resistant, Small Waste And Efficient Fuel Use Reactor; H. Sekimoto.- Emissions of the corrosion radionucides in an atmosphere; M. Vardanyan.- IAEA Support for Operating Nuclear Reactors; O. Akira.-The Solid Coolant and Prospects of Its Use in Innovative Reactors; A.M Dmitriev, V. Deniskin.- Innovation Projects of Atomic Energy Institute of National Nuclear Center RK in the Area of Peaceful Use of Atomic Energy; E.Kenzhin et al.- Innovative Designs of Nuclear Reactors; B. Gabaraev, Y. Cherepnin.- Development of Devices for Handling with BN-350 Radioactive Waste; A.G. Ikanov et al.- Institutional Support to the Nuclear Power Based on Transportable Installations; V. Kuznetsov, Y. Cherepnin.-International Cooperation and Security in the Field of Nuclear Energy in Armenia; D. Khachatryan et al.- Applied Model of Through-Wall Crack of Coolant Vessels of VVER-type Reactors; V.Petrosyan et al.-Index.

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