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A Nuclear Pumped Laser for the Laboratory Microfusion Facility

Published online by Cambridge University Press:  09 March 2009

G. H. Miley
G. H. Miley
Affiliation:
Fusion Studies Laboratory, University of Illinois, Urbana, Illinois 61801
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Abstract

The Laboratory Microfusion Facility (LMF) has been proposed to study Inertial Confinement Fusion (ICF) targets with reactor-grade gains. An advanced solid-state laser is the prime candidate as the driver for the LMF. However, here we present a conceptual design for an alternate approach using a Nuclear Pumped Laser (NPL).

A pulsed fission reactor is used to excite an oxygen-iodine laser in this design, based on preliminary data on nuclear pumping of O2(1δ). Although a working NPL of this specific type has not yet been assembled, we believe this concept holds great potential, both as a test facility driver and as a future power reactor.

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Type
Research Article
Information
Laser and Particle Beams , Volume 7 , Issue 3 , August 1989, pp. 411 - 419
Copyright
Copyright © Cambridge University Press 1989

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References

Balog, S. et al. 1988 “Nuclear-Pumped O2-I Laser as Possible ICF Driver,” Nuc. Eng. 358/458 Design Report, Fusion Studies Laboratory Univ. of 111, Urbana IL. Also see Fusion Technology, 15, 383 (1989).Google Scholar
Bixler, D. N. 1987 Abstracts, 8th Int. Workshop on Laser Inter, and Rel. Phen., Monterey, CA p. 79.Google Scholar
Brederlow, G. et al. 1976 “The Asterix III Pulsed High-Power Iodine Laser,” IEEE J. of Quantum Electronics, QE-12, No. 2.Google Scholar
Elsayed-Ali, H. E. & Miley, G. H. 1983 Proc. Inter. Conf. on Lasers '83, 401–405.Google Scholar
Guyot, J., Miley, G. H. & Verdeyen, J. 1972 “Application of a Two-Region Heavy-Charged Particle Model to Noble-Gas Plasma Induced by Nuclear Radiations,” Nuclear Science and Engineering, 48, 373–386.CrossRefGoogle Scholar
Miley, G. H. 1971 “Direct Conversion of Nuclear Radiation Energy,” American Nuclear Society.Google Scholar
Miley, G. H. 1984 “Neutron Feedback ICF” Atomkernenergie-Kerntechnik, 45, 14–18.Google Scholar
Miley, G. H. 1987 “Dual-Media Nuclear-Pumped Lasers,” Fusion Studies Laboratory Report FSL-236, Univ. of III., Urbana IL.CrossRefGoogle Scholar
Miley, G. H. 1988 “Review of Dual-Media Nuclear-Pumped Lasers, Short Wavelength Lasers and Their Applications,” Yamanaka, C. ed. Springer-Verlag N.Y. (1988) pp. 14–28.Google Scholar
Miley, G. H. et al. 1989 “Fission Reactor Pumped Lasers: History and Prospects,”50 Years with Nuclear Fission Conf.,Gaithersburg, MD, April 25–28.Google Scholar
Prelas, M., Wessol, D. E. & Merrill, B. J. 1987 Abstracts, 8th Int. Workshop on Laser Inter, and Rel. Phen., Monterey, CA p. 87.Google Scholar
Rufer, M.Louise, & Murphy, , Peter, W. 1985 eds., Laser Program Annual Report '85, Lawrence Livermore National Laboratory, Livermore, CA UCRL-50021–85.Google Scholar
Schmidt, T. R. & McArthur, D. A. 1976 “Neutronics Analysis for a Subcritical Nuclear Laser Driver Excited by a Fast Pulse Reactor,” SAND-76–0139.Google Scholar
Triga, 1958, Technical Foundations of TRIGA, Technical Report, General Atomic Corp., San Diego CA.Google Scholar
Zediker, M. S. 1984 Ph.D Thesis Univ. of III., Nuclear Eng. Dept., Urbana, IL.Google Scholar