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31401 - Fundamentals and Applications of Nuclear Energy T

Academic Year 2023/2024

                
                        Docente:
                        Emanuele Ghedini
                    
                        Credits:
                        6
                    
                        SSD:
                        ING-IND/18
                    
                        Language:
                        Italian
                    
                        Teaching Mode:
                        Traditional lectures
                        
                            Campus:
                            Bologna
                        
                            Corso:
                            First cycle degree programme (L) in
                            Energy Engineering (cod. 0924)

                            Teaching resources on Virtuale
                        
                                    Course Timetable
                                
from Sep 18, 2023 to Dec 18, 2023

Learning outcomes

Fundamentals of radiation and plasma engineering with an introduction to the main applications in the energy, industrial-technological and biological-biomedical sectors.

Course contents

Introduction to nuclear physics and neutron induced nuclear reactions: stability and binding energy, cross sections, nuclear fission, neutron capture, elastic and anelastic scattering.
Fission chain reaction: criticality, effective multiplication constant, delayed neutrons, nuclear reactors classification by spectrum and coolant.
Neutron diffusion theory: derivation and applicability, boundary and interface conditions, solution for nonmultiplying media, migration length, bare homogeneous reactors, reflectors, cross sections homogeneization, control rods.
Neutron spectrum: infinite medium spectrum, multigroup method for infinite medium, introduction to resonance absorption and treatment, multigroup diffusion.
Reactor kinetics: delayed neutrons, point-kinetics, reactivity coefficients.
Fuel burnup: fuel composition changes, Samarium and Xenon effects, breeding, fuel reprocessing, nuclear waste.
Nuclear reactors: PWR, BWR, HWR, GCR, LMFBR, III and IV generation reactors, general design approach.
Nuclear reactors safety.
Nuclear fusion: fusion reactions, power balance in a fusion reactor.
Plasma physics: basic concepts, single particle motion, coulomb interactions, two-fluids model, MHD equations, MHD equilibrium, fusion reactors technologies.

Readings/Bibliography

Weston M. Stacey, Nuclear Reactor Physics, WILEY-VCH, 2007

Jeffrey P. Freidberg, Plasma Physics and Fusion Energy, Cambridge University Press, 2007

M. Cumo, Impianti Nucleari, Università La Sapienza, 2012B.

Montagnini - Lezioni di Fisica del Reattore Nucleare - Università di Pisa, 1983 (disponibile su AMS Campus)

J.R. Lamarsh, Introduction to Nuclear Reactor Theory, Addison-Wesley, 1966

Teaching methods

Teaching in classroom, use of simple didactic MATLAB codes.

Assessment methods

Oral examination on theory, technologies and exercises.

Teaching tools

Material available on Virtuale

Office hours

See the website of Emanuele Ghedini

SDGs

This teaching activity contributes to the achievement of the Sustainable Development Goals of the UN 2030 Agenda.