Summary of the U.S. Senior Committee on Environmental, Safety, and Economic Aspects of Magnetic Fusion Energy (ESECOM)
Abstract
Organized in late 1985, the ten-member. Senior Committee on Environmental, Safety, and Economic Aspects of Magnetic Fusion Energy (ESECOM) has recently completed a comprehensive assessment [1] of the potential for magnetic fusion energy (MFE) providing energy with attractive economic, environmental, and safety, characteristics compared to present and future fission energy sources. We explored the interaction of environmental, safety, and economic characteristics of a variety of fusion and fission cases listed in Section 2, using consistent economic and safety models. Our findings in Section 3 indicate that several MFE candidates have the potential to achieve costs of electricity (COE) comparable to those of present and future fission systems, and with significant safety and environmental advantages. These conclusions rest on key assumptions about plasma performance and improvements in fusion technology, which are optimistic but defensible extrapolations from current achievements. In contrast, a recent report of the Scientific, Technological Options Assessment (STOA) office of the European Parliament [3] proposes criteria for assessment of future MFE reactor safety and economics, which are generally much more restrictive than criteria used in the ESECOM study, with respect to allowing assumptions of future technology improvement. ESECOM, however, has taken the long view that the time horizon for MFE commercial application is the year 2015 at the earliest, and more probably beyond 2030. Accordingly, ESECOM chose to analyze MFE cases assuming advances of new technologies (e.g., materials) that are only in the beginning stages of development. Due to lack of space, only selected portions of the ESECOM work are discuss here.
Preview
Unable to display preview. Download preview PDF.
References
- [1]Holdren, J.P., Berwald, D.H., Budnitz, R.J., Crocker, J.G., Delene, J.G., Endicott, R.D., Kazimi, M.S., Krakowski, R.A., Logan, B.G., and Schultz, K.R., “Exploring the Competitive Potential of Magnetic Fusion Energy: The Interaction of Economics with Safety and Environmental Characteristics”,Fusion Technology 13, 7 (1988).Google Scholar
- [2]Holdren, J.P., Berwald, D.H., Budnitz, R.J., Crocker, J.G., Delene, J.G., Endicott, R.D., Kazimi, M.S., Krakowski, R.A., Logan, B.G., and Schultz, K.R.,Report of the Senior Committee on Environmental, Safety, and Economic Aspects of Magnetic Fusion Energy, UCRL-53766, Lawrence Livermore National Laboratory(1988).Google Scholar
- [3]Report of the Office of Scientific, Technological Options Assessment (STOA) “Criteria for the Assessment of European Fusion Research”, Vol. I and II, The European Parliament, Luxembourg, May, 1988.Google Scholar
- [4]Sheffield, J, Dory, R.A., Cohn, S.M., Delene, J.G, Parsly, L.F. Ashby D.E.T.F, and Reiersen, W.T, “Cost Assessment of a Generic Magnetic Fusion Reactor”,Fusion Technology 9, 199 (1986).Google Scholar
- [5]Argonne National Laboratory, McDonnell-Douglass Aeronautic Co., General Atomic Co., and The Ralph M. Parsons Co. “STARFIRE: A Commercial Tokamak Fusion Power Study”, Argonne National Laboratory, Report ANL/FPP-80–1 (1980).Google Scholar
- [6]“Nuclear Energy Cost Data Base”, DOE/NE-0044/3, U.S. Department of Energy, Office of Nuclear Energy (1985).Google Scholar
- [7]Fetter, S.A., “Radiological Hazards of Fusion Reactors: Models and Comparisons”, Ph.D. Thesis, University of California, Berkeley (1985).Google Scholar
- [8]Plechaty, E.F. and Kimlinger, J.R., “TARTNP: A Coupled Neutron-Photon Monte Carlo Transport Code”, UCRL-50400, Vol. 14, Lawrence Livermore National Laboratory (1976).Google Scholar
- [9]Blink, J.A., Dye, R.E., and Kimlinger, J.R., “ORLIB: A Computer Code that Produces One-Energy-Group, Time- and Spatially Averaged Neutron Cross Sections”, UCRL-53262 , Lawrence Livermore National Laboratory(1981).CrossRefGoogle Scholar
- [10]Blink, J.A., “FORIG: A Computer Code for Calculating Radionuclide Generat ion and Depletion in Fusion and Fission Reactors”, UCRL-53633, Lawrence Livermore National Laboratory (1985).CrossRefGoogle Scholar
- [11]Smith, D.L., Baker, CC, Sze, D.K., Morgan, G.D., Abdou, M.A., Piet, S.J., Schultz, K.R., Moir, R.W., and Gordon, J.D., “Overview of the Blanket Comparison and Selection Study”, Fusion Technology 8, 1, Part 1, 10 (1985).Google Scholar
- [12]Piet, S.J., “Approaches to Achieving Inherently Safe Fusion Power Plants”, Fusion Technology 10 1, 7 (1986).Google Scholar
- [13]Perkins, J., Lawrence Livermore National Laboratory, Personal Communication (Aug. 1985). See also LLNL report UCID-20773 “MINIMARS Conceptual Design: Final Report”, Sept. 1986.Google Scholar