Number of hours
- Lectures 8.0
- Projects 0
- Tutorials 8.0
- Internship 0
- Laboratory works 0
- Written tests 0
ECTS
ECTS 1.5
Goal(s)
Understand numerical method used in deterministic neutron transport codes : collision probabilities.
Understand the industrial neutron calculation scheme.
Experience the practical use of a deterministic neutron transport code for simplified reactor physics calculations.
Calculate temperature coefficients, homogeneisation, in static or in depletion calculations.
Contact Adrien BIDAUD, Tanguy COURAU, Pamela LOPEZContent(s)
Neutron Transport theory :
From transport to diffusion equation : assumptions and approximations.
Example of a transport solution method : Collision Probabilities.
Preparing diffusion cross section : energy condensation, flux-volume homogeneisation, transport-diffusion equivalence.
Fuel burn-up calculation.
Fuel management
Industrial calculation scheme
Prerequisites
- Reactor physicis : criticality, temperature feedbacks, fuel management
- Neutronics : slowing-down equation, resonance self-shielding, transport equation, diffusion model
- Numerical methods : PDEs, numerical quadrature methods, solving numerically linear systems.
Controle continu = Exercice session evaluation (3*10%)
No catch up exam for that part
Written report project = Simulation project : Fuel burn-up of simple fuel cells (70%)
Redo exam would be another written report project.
Project: 70% + Contrôle Continu : 3*10%
This course brings 2.0 ECTS to students in TU Simulations
This course brings 1.0 ECTS to students in UE Simulations JUAS
DRAGON User Manual : TECHNICAL REPORT IGE–174 Rev. 12 (Release 3.06L)
"La Neutronique", Monographies CEA/DEN, 2013, ISBN 978-2-281-11371-6
Applied Reactor Physics, Alain Hebert, Presses internationales Polytechnique, 2009