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Nuclear energy generation and waste transmutation using an accelerator-driven intense thermal neutron source

Abstract

We describe a new approach for commercial nuclear energy production without a long-term high-level waste stream and for transmutation of both fission product and higher actinide commercial nuclear waste using a thermal flux of accelerator-produced neutrons in the 10{sup 16} n/cm{sup 2}s range. Continuous neutron fluxes at this intensity, which is approximately 100 times larger than is typically available in a large scale thermal reactor, appear practical, owing to recent advances in proton linear accelerator technology and to the spallation target-moderator design presented here. This large flux of thermal neutrons makes possible a waste inventory in the transmutation system which is smaller by about a factor of 100 than competing concepts. The accelerator allows the system to operate well below criticality so that the possibility for a criticality accident is eliminated. No control rods are required. The successful implementation of this new method for energy generation and waste transmutation would eliminate the need for nuclear waste storage on a geologic time scale. The production of nuclear energy from {sup 232}Th or {sup 238}U is used to illustrate the general principles of commercial nuclear energy, production without long-term high-level waste. There appears to be sufficient thorium to meet the world's energy  More>>
Publication Date:
Aug 15, 1992
Product Type:
Journal Article
Reference Number:
AIX-23-087015; EDB-92-180389
Resource Relation:
Journal Name: Nuclear Instruments and Methods in Physics Research, Section A; (Netherlands); Journal Volume: 320:1/2
Subject:
43 PARTICLE ACCELERATORS; 12 MANAGEMENT OF RADIOACTIVE AND NON-RADIOACTIVE WASTES FROM NUCLEAR FACILITIES; NEUTRON SOURCES; SPALLATION; NUCLEAR ENERGY; RADIOACTIVE WASTE PROCESSING; BETA-MINUS DECAY; CAPTURE; CESIUM 137; COST; FISSION PRODUCTS; GAMMA RADIATION; GEV RANGE 01-10; IODINE 129; IRRADIATION; ISOTOPE SEPARATION; LEAD 208 TARGET; LINEAR ACCELERATORS; MICRO AMP BEAM CURRENTS; MILLI EV RANGE; NEPTUNIUM 237 TARGET; NEPTUNIUM 238; NEPTUNIUM 239; NEUTRON FLUX; NEUTRON REACTIONS; PHOTONS; PLUTONIUM 238 TARGET; PLUTONIUM 239; PLUTONIUM 239 TARGET; PLUTONIUM 240; PROLIFERATION; PROTON BEAMS; PROTON REACTIONS; SAFEGUARDS; SELENIUM 79; STRONTIUM 90; TARGET CHAMBERS; TECHNETIUM 99; THERMAL NEUTRONS; TIN 126; ZIRCONIUM 93; ACCELERATOR FACILITIES; ACCELERATORS; ACTINIDE ISOTOPES; ACTINIDE NUCLEI; ALKALI METAL ISOTOPES; ALKALINE EARTH ISOTOPES; ALPHA DECAY RADIOISOTOPES; BARYON REACTIONS; BARYONS; BEAM CURRENTS; BEAMS; BETA DECAY; BETA DECAY RADIOISOTOPES; BETA-MINUS DECAY RADIOISOTOPES; BOSONS; CESIUM ISOTOPES; CHARGED-PARTICLE REACTIONS; CURRENTS; DAYS LIVING RADIOISOTOPES; DECAY; ELECTROMAGNETIC RADIATION; ELEMENTARY PARTICLES; ENERGY; ENERGY RANGE; EV RANGE; EVEN-EVEN NUCLEI; EVEN-ODD NUCLEI; FERMIONS; GEV RANGE; HADRON REACTIONS; HADRONS; HEAVY NUCLEI; HOURS LIVING RADIOISOTOPES; INTERMEDIATE MASS NUCLEI; INTERNAL CONVERSION RADIOISOTOPES; IODINE ISOTOPES; IONIZING RADIATIONS; ISOMERIC TRANSITION ISOTOPES; ISOTOPES; MANAGEMENT; MASSLESS PARTICLES; MATERIALS; MINUTES LIVING RADIOISOTOPES; NEPTUNIUM ISOTOPES; NEUTRONS; NUCLEAR DECAY; NUCLEAR REACTIONS; NUCLEI; NUCLEON BEAMS; NUCLEON REACTIONS; NUCLEONS; ODD-EVEN NUCLEI; ODD-ODD NUCLEI; PARTICLE BEAMS; PARTICLE SOURCES; PLUTONIUM ISOTOPES; PROCESSING; RADIATION FLUX; RADIATION SOURCES; RADIATIONS; RADIOACTIVE MATERIALS; RADIOACTIVE WASTE MANAGEMENT; RADIOISOTOPES; SELENIUM ISOTOPES; SEPARATION PROCESSES; SPONTANEOUS FISSION RADIOISOTOPES; STRONTIUM ISOTOPES; TARGETS; TECHNETIUM ISOTOPES; TIN ISOTOPES; WASTE MANAGEMENT; WASTE PROCESSING; YEARS LIVING RADIOI; YEARS LIVING RADIOISOTOPES; ZIRCONIUM ISOTOPES; 430303* - Particle Accelerators- Experimental Facilities & Equipment; 052001 - Nuclear Fuels- Waste Processing
OSTI ID:
7226200
Country of Origin:
Netherlands
Language:
English
Other Identifying Numbers:
Journal ID: ISSN 0168-9002; CODEN: NIMAE
Submitting Site:
NLN
Size:
Pages: 336-367
Announcement Date:
Dec 15, 1992

Citation Formats

Bowman, C D, Arthur, E D, Lisowski, P W, Lawrence, G P, Jensen, R J, Anderson, J L, Blind, B, Cappiello, M, Davidson, J W, England, T R, Engel, L N, Haight, R C, Hughes, III, H G, Ireland, J R, Krakowski, R A, LaBauve, R J, Letellier, B C, Perry, R T, Russell, G J, Staudhammer, K P, Versamis, G, and Wilson, W B. Nuclear energy generation and waste transmutation using an accelerator-driven intense thermal neutron source. Netherlands: N. p., 1992. Web. doi:10.1016/0168-9002(92)90795-6.
Bowman, C D, Arthur, E D, Lisowski, P W, Lawrence, G P, Jensen, R J, Anderson, J L, Blind, B, Cappiello, M, Davidson, J W, England, T R, Engel, L N, Haight, R C, Hughes, III, H G, Ireland, J R, Krakowski, R A, LaBauve, R J, Letellier, B C, Perry, R T, Russell, G J, Staudhammer, K P, Versamis, G, & Wilson, W B. Nuclear energy generation and waste transmutation using an accelerator-driven intense thermal neutron source. Netherlands. https://doi.org/10.1016/0168-9002(92)90795-6
Bowman, C D, Arthur, E D, Lisowski, P W, Lawrence, G P, Jensen, R J, Anderson, J L, Blind, B, Cappiello, M, Davidson, J W, England, T R, Engel, L N, Haight, R C, Hughes, III, H G, Ireland, J R, Krakowski, R A, LaBauve, R J, Letellier, B C, Perry, R T, Russell, G J, Staudhammer, K P, Versamis, G, and Wilson, W B. 1992. "Nuclear energy generation and waste transmutation using an accelerator-driven intense thermal neutron source." Netherlands. https://doi.org/10.1016/0168-9002(92)90795-6.
@misc{etde_7226200,
title = {Nuclear energy generation and waste transmutation using an accelerator-driven intense thermal neutron source}
author = {Bowman, C D, Arthur, E D, Lisowski, P W, Lawrence, G P, Jensen, R J, Anderson, J L, Blind, B, Cappiello, M, Davidson, J W, England, T R, Engel, L N, Haight, R C, Hughes, III, H G, Ireland, J R, Krakowski, R A, LaBauve, R J, Letellier, B C, Perry, R T, Russell, G J, Staudhammer, K P, Versamis, G, and Wilson, W B}
abstractNote = {We describe a new approach for commercial nuclear energy production without a long-term high-level waste stream and for transmutation of both fission product and higher actinide commercial nuclear waste using a thermal flux of accelerator-produced neutrons in the 10{sup 16} n/cm{sup 2}s range. Continuous neutron fluxes at this intensity, which is approximately 100 times larger than is typically available in a large scale thermal reactor, appear practical, owing to recent advances in proton linear accelerator technology and to the spallation target-moderator design presented here. This large flux of thermal neutrons makes possible a waste inventory in the transmutation system which is smaller by about a factor of 100 than competing concepts. The accelerator allows the system to operate well below criticality so that the possibility for a criticality accident is eliminated. No control rods are required. The successful implementation of this new method for energy generation and waste transmutation would eliminate the need for nuclear waste storage on a geologic time scale. The production of nuclear energy from {sup 232}Th or {sup 238}U is used to illustrate the general principles of commercial nuclear energy, production without long-term high-level waste. There appears to be sufficient thorium to meet the world's energy needs for many millenia. (orig.).}
doi = {10.1016/0168-9002(92)90795-6}
journal = []
volume = {320:1/2}
journal type = {AC}
place = {Netherlands}
year = {1992}
month = {Aug}
}