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Technical Paper

ANFIBE: A Comprehensive Model for Swelling and Tritium Release from Neutron-Irradiated Beryllium—II: Comparison of Model Predictions with Experimental Results

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Pages 146-163 | Published online: 09 May 2017

References

  • F. SCAFFIDI-ARGENTINA, M. DALLE DONNE, C. RONCHI, and C. FERRERO, “ANFIBE: A Comprehensive Model for Swelling and Tritium Release from Neutron Irradiated Beryllium—I: Theory and Model Capabilities,” Fusion Technol., 32, 179 (1997).
  • D. L. BALDWIN and M. C. BILLONE, “Diffusion/Desorption of Tritium from Irradiated Beryllium,” J.Nucl. Mater., 212–215, 948 (1994).
  • M. C. BILLONE et al., “Tritium and Helium Behavior in Irradiated Beryllium,” Fusion Technol., 19, 1707 (1991).
  • L. SANNEN et al., “Helium Content and Swelling of Low Temperature Irradiated/Post-Irradiated Annealed Beryllium,” CEN/SCK report FT/Mol/ 93-07.
  • J. M. BEESTON, “Properties of Irradiated Beryllium: Statistical Evaluation,” TREE-1063, EG&G Idaho, Inc. (1976).
  • J. M. BEESTON et al., “Comparison of Compression Properties and Swelling of Beryllium Irradiated at Various Temperatures,” J.Nucl. Mater., 122–123, 802 (1984).
  • E. KOONEN, “Study on Irradiation Effects and Swelling of Irradiated Beryllium,” CEN/SCK Report, Reactor Safety Analysis BR2 Department (1989).
  • J. M. BEESTON et al., “Gas Retention in Irradiated Beryllium,” EGG-FSP-9125, EG&G Idaho, Inc. (1990).
  • V. LEVY, “Rapport Final du Contrat SBB-BS1,” (CEA report), N. T. SRMA 92-1955 F.A 3591–532, Centre d’Etudes de Saclay (1992).
  • G. A. SERNYAEV, “Beryllium Swelling and Spontaneous Cracking Under Low Temperature Irradiation,” SF Nikiet internal report.
  • G. A. SERNYAEV, “Beryllium Swelling in High-Temperature Neutron Irradiation, Main Structure Factors Role,” SF Nikiet internal report.
  • J. B. RICH et al., “The Effects of Heating Neutron Irradiated Beryllium,” J. Nucl. Mater., 1, 96 (1959).
  • J. B. RICH and G. P. WALTERS, “The Mechanical Properties of Beryllium Irradiated at 350 and 600°C,” Proc. Int. Conf. Metallurgy of Beryllium, London, United Kingdom, October 16–18, 1961, p. 362.
  • W. DIENST et al., “Tritium Release of Li2SiO4, Li4O and Beryllium and Chemical Compatibility of Beryllium with Li4SiO4, Li2O and Steel (SIBELIUS Irradiation),” KfK Bericht 5109, Kernforschungszentrum Karlsruhe (1992).
  • L. DÖRR et al., “Long-Time Tritium Release from Irradiated Beryllium (SIBELIUS Irradiation),” Proc. IEA Workshop Beryllium for Fusion Application, Karlsruhe, Germany, October 4–5, 1993, KfK-Bericht 5271, p. 138, Kernforschungszentrum Karlsruhe (Dec. 1993).
  • F. SCAFFIDI-ARGENTINA and H. WERLE, “Tritium Release from Neutron Irradiated Beryllium: Kinetics, Long-Time Annealing and Effect of Crack Formation,” Proc. 2nd IEA Workshop Beryllium Technology for Fusion, Jackson Hole, Wyoming, September 6–8, 1995, CONF-9509218, p. 235.
  • J. M. DUPOY et al., “Self Diffusion and Diffusion of Foreign Atoms in Beryllium,” Mém. Scientif. Rev. Metallurgy., 63, 481 (1966).
  • V. V. VLASOV et al., “Migration of He in Irradiated Beryllium,” Kurtshatov’se Institut of Atomic Energy (1992).
  • A. G. BESPALOV et al., “Diffusivity of He in Irradiated Beryllium,” Trans. Physical-Energetic Inst. Moscow, 443 (1974).
  • J. M. BEESTON, “Gas Release and Compression Properties in Beryllium Irradiated at 600 and 750°C,” USAEC report IN-1057, Idaho Nuclear Corporation (1967).
  • B. S. HICKMAN, “Nucleation and Growth of Gas Bubbles in Irradiated Metals,” J. Austral. Instrum. Meth., 5, 2, 173 (1960).
  • V. V. VLASOV and J. G. DEGALTSEV, “Migration of He in Beryllium Irradiated by Alpha Particles,” Kurtshatov’se Institut of Atomic Energy (1981).
  • J. KOUTSKY and J. KOCÍK, Radiation Damage of Structural Material, Elsevier, Amsterdam (1994).
  • P. M. S. JONES and R. GIBSON, “Hydrogen in Beryllium,” AWRE report 0-2/67, Atomic Weapons Research Establishment (1967).
  • D. KÉROACK et al., “Laser Desorption and Depth Profiling Study of Hydrogen and Deuterium Implanted in Beryllium,” Proc. IEA Workshop Beryllium for Fusion Applications, Karlsruhe, Germany, October 4–5, 1993, KfK-Bericht 5271, p. 319, Kernforschungszentrum Karlsruhe (Dec. 1993).
  • I. L. TAZHIBAEVA et al., “Deuterium Permeation through Beryllium with Surface Element Composition Control,” Proc. 18th Symp. Fusion Technology, Karlsruhe, Germany, August 22–26, 1994.
  • J. P. PEMSLER and E. J. RAPPERPORT, “Hydrogen in Proton-Bombarded Beryllium: Agglomeration and Diffusion,” Trans. Metall. Soc. AIME, 230, 90 (1964).
  • S. CHO et al., “Modeling of Tritium Release from Beryllium in Fusion Blanket Applications,” J. Nucl. Mater., 212– 215, 961 (1994).
  • H. KAWAMURA, Private Communication (1992).
  • E. ABRAMOV et al., “Deuterium Permeation and Diffusion inHigh-Purity Beryllium,” J. Nucl. Mater., 175, 90 (1990).
  • G. CAGLIOTI et al., “Surface Energy for Brittle Fracture in Metals from Phonon Frequencies,” J. Appl. Phys., 42, 11, 4271 (1971).
  • J. BARNES and G. B. REDDINGS, “The Behavior of Helium Atoms Injected into Beryllium,” J. Nucl. Energy, 10, 32 (1959).
  • V. K. KUMIROV, “The Measurements of the Surface Tension of Some Pure Metals in the Solid State,” Mater. Sci. Eng., 60, L23 (1983).
  • R. SWALIN, Thermodynamics of Solids, p. 181, John Wiley and Sons, New York (1962).
  • D. A. PORTER and K. E. EASTERLING, Phase Transformations in Metals and Alloy, p. 113, Van Nostrand Reinhold, United Kingdom (1981).
  • D. E. DOMBROWSKI, Brush-Wellman, Private Communication (1992).
  • Ullmann ’s Encyclopedia of Industrial Chemistry, Vol. A4, p. 12, Weinheim (1985).
  • L. MURR, Interfacial Phenomena in Metals and Alloys, p. 130, Addison-Wesley Publishing, Reading, Massachusetts (1975).
  • M. C. BILLONE and W. T. GRAYHACK, “Summary of Mechanical Properties Data and Correlations for Li2O, Li4SiO4, LiAlO2 and Be,” ANL/FPP/TM-218 Argonne National Laboratory (1988).
  • M. C. BILLONE, Private Communication (1992).
  • D. WEBSTER and D. D. CROOKS, “Factors Influencing the Creep Strength of Hot Pressed Beryllium,” Metallurg. Tran., 6A, 2049 (1975).
  • D. WEBSTER and D. D. CROOKS, “Creep Mechanisms in Beryllium,” Metallurg. Trans., 7A, 1307 (1976).
  • R. V. HESKETH, Proc. Int. Conf. Solid State Physics and Research with Accelerator, Brookhaven National Laboratory, September 1967, BNL-500883 (C-52) (Physics-TID-4500), p. 389.
  • M. DALLE DONNE et al., “European DEMO BOT Solid Breeder Blanket,” KfK-Bericht 5429, Kernforschungszentrum Karlsruhe (Nov. 1994).

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