Learning Outcomes
 To understand the physical processes involved in a nuclear reactor
 To understand and be able to write down and solve the basic equations
 To be able to simulate a reactor/source configuration as appropriate depending on:
 number of dimensions;
 steady state or transient;
 number of groups;
 delayed neutron precursors;
 space dependent properties and grid spacing.
 To learn how to measure neutron distributions and parameters relevant for nuclear reactors, in particular reactivity and reactivity coefficients
Content
 Physics of nuclear reactors
 Transport theory
 Diffusion theory
 Spatial dependence
 Slowing down theory
 Cell calculations
 Neutron thermalisation
 Multigroup equations
 Point kinetic equations
 Reactor dynamics including reactivity effects
 Experimental reactor physics
Laboratory session with static and kinetic measurements at the BR1, Sigma pile and VENUS facility
Course material and reference books
The PowerPoint presentations of the lectures, and extensive lecture notes, are available on the BNEN website.
Other useful references:
 J.J. Duderstadt and L.J. Hamilton, “Nuclear Reactor Analysis”, 1976 (Wiley & Sons)
 Lamarsh, J.R., “Introduction to Nuclear Reactor Theory”, AddisonWesley, Reading, Mass., 1966
 Profio, A.E., Experimental Reactor Physics, J. Wiley, 1976
 P. Reuss, “Neutron physics”, 2008 (EDP Sciences)
Preassumed knowledge or prerequisites
 Introduction to nuclear physics
 Introduction to nuclear engineering
Grading and examination
Written examination, open book. The course contains three parts, each part is individually evaluated on the exam. The final mark will be calculated based on a weighted average on the three parts. (weighting factor roughly 1/3, 1/3, 1/3). In case of a failure for one of the parts, the examination committee can decide to penalize by lowering the final grade.
Laboratory sessions are compulsory and cannot be repeated in the second session. No report is required, but questions on the laboratory session might be included in the exam.
