Welcome
Information For
Information About
Contact Us
UIMS
|
Nuclear Science
Lecturer: A/Prof Martin Ebert
Director of Physics Research
Department of Radiation Oncology
Sir Charles Gairdner Hospital
Hospital Avenue
Nedlands WA 6009
Tel: (08) 93461195
Fax: (08) 93463402
Email: Martin.Ebert@health.wa.gov.au
Overview
Nuclear science is one of the most prominent areas of physics
in society. With a renewed global interest in nuclear processes
and their applications, an understanding of this science is
essential for informed participation in social development. In
addition, nuclear physics is an essential part of many areas of
physics and other sciences.
This course will develop an understanding of nuclear theory
and the role of nuclear science in society. In particular, the
emphasis is on nuclear reactions and the nuclear fuel cycle
including the use of nuclear power. Contemporary applications of
nuclear science in materials analysis and medicine will be
examined, together with issues in radiation safety. The
historical context of nuclear science is explored including the
resulting political, scientific and sociological consequences,
together with the current place of nuclear science in the global
environment.
A basic summary of topics covered in each lecture and sample
questions is provided (Lecture
Summary and Sample Questions)
Course structure
- Overview of course structure. Review of nuclear physics
(nucleons, nuclear structure, isotopes, nuclear reactions and
interactions). Historical development to 1945. A is for
Atom.
- The nuclear force. Binding energy and stability. Liquid
drop model. Characteristics of individual nucleons. Nuclear
shell model. Collective states.
- Decay processes. Alpha, beta, gamma decay, transitions,
spectra and models.
- Nuclear reactions. Reaction processes, energies and product
particles. Reference frame conversion. Cross sections.
- Interactions with matter. Energy loss and interaction
cross-sections.
- Radiation and health. Biological radiation effects. Risk
assessment.
- Fission and the chain reaction. Neutron scattering.
Diffusion and continuity equations.
- Reactor fuels. Reactor design, kinetics and poisoning.
Time-dependence. Commercial reactors. Breeder reactors.
- The nuclear fuel cycle. Nuclear waste. Nuclear
accidents.
- Historical development 1945 – 2000. Nuclear science
promotion video. Social implications of nuclear power and
nuclear weapons. Weapons proliferation and non-proliferation
treaty. Anti-nuclear movement. International regulation and
establishment of the IAEA. Nuclear power in Australia. Proposed
civil, military and research nuclear industries. 2006 Task
Force.
- Nuclear physics in medicine. Isotope production. Magnetic
resonance imaging and nuclear medicine.
- Materials analysis. Commercial nuclear applications –
geology, tracing and gauging, sterilization, activation
analysis. Nuclear terrorism (Litvinenko example) and dirty
bombs. Review.
Assessment
One assignment (50% of mark). One 2 hour exam (50% of
mark).
References
Principal reference:
- Lilley JS, Nuclear Physics: Principles and Applications
Wiley 2001
Other useful references:
- Eisberg & Resnick, Quantum Physics of Atoms, Molecules,
Solids, Nuclei, and Particles, Wiley 1985
- BR Martin, Nuclear and Particle Physics: An introduction,
Wiley 2006
- WM Stacey, Nuclear Reactor Physics, 2nd edn, Wiley
2007
- E Lewis, Fundamentals of Nuclear Reactor Physics, Elsevier
2008
- D Bodansky, Nuclear Energy: Principles, Practices, and
Prospects, 2nd edn, Springer 2005
- S Dowd and E Tilson, Practical Radiation Protection and
Applied Radiobiology 2nd edn, Elsevier/Saunders 1999
- Dyson NA Nuclear Physics with Applications in Medicine
& Biology, 1981
- Murray RL Nuclear Energy, 1980
- Bennet DJ and Thomson JR The Elements of Nuclear Power, 3rd
edn
- Sorenson JA, Physics in Nuclear Medicine, Orlando 1987
- Caldicott H, Nuclear Power is Not the Answer to Global
Warming or Anything Else, Melbourne University Publishing
2006
|
|