원자력공학개론

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원자력공학개론

포항공과대학교
John C. Lee

페이스북 트위터 카카오톡 네이버밴드 링크복사

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공학 >정밀ㆍ에너지 >원자력공학
강의학기

2011년 1학기

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11,065

This course will cover an introduction to nuclear power plants, interaction of radiation with matter, neutron cross sections, diffusion theory, criticality calculations, reactor kinetics, neutron slowing down theory, heat transport and temperature distribution in reactor core, and reactivity feedback.

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Introduction to Nuclear Power Plants

차시별 강의

1.	Introduction to Nuclear Power Plants	Introducing fundamentals of nuclear reactor phyiscs & engineering (4.26)
4.	Two-body collision mechanics	Inducing the relations between Lab frame & CM (5.2)
6.	Differential cross section, neutron number density	Explainations on differential, integral cross section, and scattering krnel (5.6)
7.	Angular neutron flux, scalar flux, net current, partial current	Interpreting definitions of neutron flux and current (5.9)
8.	Reaction rate, effective cross sections	Interpreting means of reaction rate & effective cross section (5.11)
9.	Numerical integration for Prob. 2.1, 4-factor formula, diffusion equation	1. Inducing the flux for neutrons obeying the Maxwell-Boltxman distribution 2. Introducing the neutron diffusion equation. (5.13)
11.	Diffusion coefficient, mean cosine scattering angle, 1-group diff. equation	1. providing an interpretation of the diffusion coefficient for the current. 2. Discussing limitations and applicability of diffusion theory. 3. Derivation of the one-group diffusion equation.(5.18)
12.	Boundary conditions for diffusion equation, plane source problem	1. disscusion of the boundary conditions necessary for the solution of Eq. 4.1. 2. providing source conditons for solutions of the steady-state diffusion equation (5.20)
13.	Review on neutron flux, mean square distance, finite slab problem	providing solutions of the steady-state diffusion equation according to each source type (5.23)
14.	Neutron albedo	providing the solution of the steady-state diffusion equation incase of two slabs of finite thickness (5.3)
15.	P.S. #3, distributed source problem, kernel technique	providing the solution fo the diffusion equation with distributed sources (6.1)
16.	P.S. #3, multiplying medium, geometric and material buckling	introducing the concept of material and geometric bucklings together with the one-group form of the effective mutiplication factor (6.3)