# Neutron Physics Background

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## Abstract

This chapter introduces fundamental properties of the neutron. It covers reactions induced by neutrons, nuclear fission, slowing down of neutrons in infinite media, diffusion theory, the few-group approximation, point kinetics, and fission-product poisoning. It emphasizes the nuclear physics bases of reactor design and its relationship to reactor engineering problems.

## References

- 1.D.G. Madland, J.R. Nix, New calculation of prompt fission neutron spectra and average prompt neutron multiplicities. Nucl. Sci. Eng.
**81**, 213–271 (1982)CrossRefGoogle Scholar - 2.R.J. LaBauve, T.R. England, D.C. George, C.W. Maynard, Fission product analytic impulse source functions. Nucl. Technol.
**56**, 332–339 (1982)CrossRefGoogle Scholar - 3.J. Lewins,
*Nuclear Reactor Kinetics and Control*(Pergamon Press, Oxford, UK, 1978)Google Scholar - 4.K. Ott, R.J. Neuhold,
*Nuclear Reactor Dynamics*(American Nuclear Society, LaGrange Park, 1985)Google Scholar - 5.A.F. Henry,
*Nuclear Reactor Analysis*(The MIT Press, Cambridge, MA/London, UK, 1975)Google Scholar - 6.J.R. Lamarsh,
*Introduction to Nuclear Reactor Theory*(Addison Wesley Publishing Company, Inc, New York, NY, 1966)Google Scholar - 7.B. Zohuri,
*Combined Cycle Driven Efficiency for Next Generation Nuclear Power Plants: An Innovative Design Approach*(Springer.; 2015 edition, New York, NY, 2015)Google Scholar - 8.B. Zohuri, P. McDaniel, A Comparison of a Recuperated Open Cycle (Air) Brayton Power Conversion System with the Traditional Steam Rankine Cycle for the Next Generation Nuclear Power Plant” will be published in Nuclear ScienceGoogle Scholar
- 9.B. Zohuri,
*Innovative Open Air Brayton Combined Cycle Systems for the Next Generation Nuclear Power Plants*(University of New Mexico Publications, New York, NY, 2014)Google Scholar - 10.P.J. McDaniel, B. Zohuri, C.R.E. de Oliveira,
*A Combined Cycle Power Conversion System for Small Modular LMFBRs*(ANS Transactions, 2014)Google Scholar - 11.B. Zohuri,
*Cycle Power Conversion System for the Next Generation Nuclear Power Plant*(ANS Transactions, 2012)Google Scholar - 12.C. Forsberg, P. McDaniel, B. Zohuri, Variable Electricity and steam from salt, helium, and sodium cooled base-load reactors with gas turbines and heat storage, Proceedings of ICAPP 2015Google Scholar
- 13.P.E. Hodgson, E. Gadioli, E. Gadioli Erb,
*Introductory Nuclear Physics*(Oxford Science Publications). Paperback – November 27, New York, NY, 1997Google Scholar - 14.You can get the data from http://ie.lbl.gov/toimass.html
- 15.Nuclear Data Center, JAEA http://wwwndc.tokai-sc.jaea.go.jp/nucldata/index.html, Chart of the Nuclides here is based on the compilation of experimental data until 2008 by H. Koura (JAEA), T. Tachibana (Waseda University), and J. Katakura (JAEA), beta-decay half-lives
- 16.Nuclear Data Center, JAEA http://wwwndc.tokai-sc.jaea.go.jp/nucldata/index.html. this is estimated, by T. Tachibana, with the Gross Theory [T. Tachibana, M. Yamada, Proc. Int. Conf. on exotic nuclei and atomic masses, Arles, 1995, p.763], and alpha-decay half-lives based on the reference of V.E. Vola, Jr. and G.T. Seaborg, J. Inorg. Nucl. Chems., 28, 741 (1966) and newly adjusted parameter values
- 17.The speed of neutrons in a reactor is sufficiently low that one can neglect relativistic effects therefore
*m = m*_{0}, the neutron rest mass (1.6748 x 10-27 kg)Google Scholar - 18.FEMP computer code has been developed by Professor Patrick McDaniel of University of New Mexico, Nuclear Engineering DepartmentGoogle Scholar
- 19.This effort was taken in place under contract by McDaniel and Zohuri in time period of 2001-2003 but never was a finished effort, although a lot of work was put into it and somewhat a new modified version NJOY with recoil capability was developedGoogle Scholar
- 20.One can calculate the total binding energy of a nucleus from the mass defect, Δ
*m*which is the difference between the mass of the bound nucleus and the sum of the masses of the nucleons, using Einstein’s equation*E*_{bTotal=}Δ*mc*^{2}Google Scholar

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