Analysis of alternative light water reactor (LWR) fuel cycles
C.M. Heeb, R.L. Aaberg, A.J. Boegel, U.P. Jenquin, D. A. Kottwitz, M.A. Lewallen, E.T. Merrill, Aaron Nolan
Abstract
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C.M. Heeb, R.L. Aaberg, A.J. Boegel, U.P. Jenquin, D. A. Kottwitz, M.A. Lewallen, E.T. Merrill, Aaron Nolan
Abstract
Open-access reader
Nine alternative LWR fuel cycles are analyzed in terms of the isotopic content of the fuel material, the relative amounts of primary and recycled material, the uranium and thorium requirements, the fuel cycle costs and the fraction of energy which must be generated at secured sites. The fuel materials include low-enriched uranium (LEU), plutonium-uranium (MOX), highly-enriched uranium-thorium (HEU-Th), denatured uranium-thorium (DU-Th) and plutonium-thorium (Pu-Th). The analysis is based on tracing the material requirements of a generic pressurized water reactor (PWR) for a 30-year period at constant annual energy output. During this time period all the created fissile material is recycled unless its reactivity worth is less than 0.2% uranium enrichment plant tails.
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Nine alternative LWR fuel cycles are analyzed in terms of the isotopic content of the fuel material, the relative amounts of primary and recycled material, the uranium and thorium requirements, the fuel cycle costs and the fraction of energy which must be generated at secured sites. The fuel materials include low-enriched uranium (LEU), plutonium-uranium (MOX), highly-enriched uranium-thorium (HEU-Th), denatured uranium-thorium (DU-Th) and plutonium-thorium (Pu-Th). The analysis is based on tracing the material requirements of a generic pressurized water reactor (PWR) for a 30-year period at constant annual energy output. During this time period all the created fissile material is recycled unless its reactivity worth is less than 0.2% uranium enrichment plant tails.
Key concepts: MOX fuel, Uranium, Fissile material, Thorium fuel cycle, Plutonium, Thorium, Uranium-233, Enriched uranium