On Stability of Accelerator‐Driven Systems

References

• Abánades , A. 2002 . Results from the TARC experiment: spallation neutron phenomenology in lead and neutron driven nuclear transmutation by adiabatic resonance crossing . Nucl. Instr. and Methods , A478 : 577 – 730 .
   Google Scholar
• 1997 . “ Accelerator Driven Systems: Energy Generation and Transmutation of Nuclear Waste. (1997). Status report ” . Vienna : IAEA . IAEA‐TECDOC‐985
   Google Scholar
• Bell , G. I. and Glasstone , S. 1970 . Nuclear Reactor Theory New York : Van Nostrand Reinhold .
   Google Scholar
• Bowman , C. D. 1991 . “ Nuclear Energy Generation and Waste Transmutation Using Accelerator Driven Intensive Thermal Neutron Source ” . report LA‐UR‐91‐2601
   Google Scholar
• Díosi , L. , Krasznovszky , S. and Wagner , I. 1999 . Phys. Letters B , 454 : 381 – 385 .
   Google Scholar
• Diven , B. C. 1956 . Phys. Rev. , 101 : 1012 – 1016 .
   Web of Science ®Google Scholar
• Erikkson , M. and Piaszczyk , C. 1998 . “ Reliability Assessment of the LANSCE Accelerator System ” . In Proc. of OECD Workshop on Reliability of High Power Accelerators Mito, , Japan
   Google Scholar
• Gandini , A. 1997 . Sensitivity analysis of source driven subcritical systems by the HPGT methodology . Ann. Nucl. Energy , 24 : 1241 – 1262 .
   Web of Science ®Google Scholar
• Gudowski , W. 2001 . Review of the European Project: Impact of Accelerator Based Technologies on Nuclear Fission Safety (IABAT) . Progress in Nuclear Energy , 38 : 136
   Google Scholar
• Kato . 1992 . “ Accelerator molten salt target system for transmutation, of long‐lived nuclides ” . In Proc. Specialists Mtg. on Accelerator Based Transmutation Villigen, , Switzerland : PSI .
   Google Scholar
• Kereszturi , A. 1994 . A 3D Kinetic Code for VVER‐440 . Trans. Am. Nucl. Soc. , 71 : 487
   Google Scholar
• Korn , G. A. and Korn , T. M. 1986 . Mathematical Handbook for Scientists and Engineers New York : McGraw‐Hill .
   Google Scholar
• Kuang , Z. F. and Pázsit , I. 1999 . The general backward theory of neutron fluctuations in subcritical systems with multiple emission sources . Il Nuovo Cimento , 112 : 1067 – 1080 .
   Google Scholar
• Nifenecker , H. 1970 . Correction for fission neutron detector efficiency and unfolding of neutron multiplicity histograms . Nucl. Instrum. Methods , 81 : 45 – 48 .
   Google Scholar
• Novikov , V. M. , Ignatev , V. V. , Fedoulov , V. I. and Cherednikov , V. N. 1990 . Molten Salt Reactor: Perspective and Problems Moscow : Energoatomizdat .
   Google Scholar
• Pázsit , I. 2003 . “ Transport Theory and Stochastic Processes ” . In Calculation of Zero Reactor Noise Göteburg: Chalmers University . Lecture Note
   Google Scholar
• Pázsit , I. and Arzhanov , V. 1999 . “ Theory of neutron noise induced by source fluctuations in accelerator‐driven subcritical reactors ” . In Annals of Nuclear Energy Vol. 26 , 1371 – 1391 .
   Google Scholar
• Papoulis , A. 1965 . Probability, Random Variables, and Stochastic Processes Tokyo : McGraw‐Hill .
   Google Scholar
• October 1999 . “ A Roadmapping for Developing Accelerator Transmutation of Waste (ATW) Technology: A Report to Congress ” . October , DOE/RW‐0519
   Google Scholar
• Williams , M. R. 1974 . Random Processes in Nuclear Reactors Pergamon : Oxford .
   Google Scholar
• Woosley , M. L. Jr. and Rydin , R. A. 1998 . Dynamic analysis of an accelerator driven fluid‐fueled subcritical radioactive waste burning system . Nucl. Sci. Eng. , 129 : 15 – 24 .
   Web of Science ®Google Scholar