This unit provides part of a major in theoretical physics. It consists of two 12-lecture sub-units, Advanced Quantum Mechanics and Computational Physics and a 12-hour seminar sub-unit. The key areas of study are:
- Advanced Quantum Mechanics: spin angular momentum, perturbation theory, scattering theory and the quantum theory of radiation;
- Computational Physics: discrete arrays to model the space and time evolution of functions or physical systems; a hands-on approach is used throughout to develop confidence and competency in using a computer to solve physical problems; includes a computer based assignment and short computational physics project; and
- Theoretical Seminar: seminar participation in theoretical problems, projects and presentations.
On completion of this unit students will be able to:
- Describe concepts and perform calculations in Advanced Quantum Mechanics, which include both exact and approximate methods, such as perturbation theory, the variational approach, WKB and scattering theory;
- Use a high level computer language, such as MatLab, to solve computation problems, and model systems, applicable to a wide variety of problems in theoretical physics;
- Solve new problems in physics related to the core concepts of the unit by drawing on the theoretical underpinnings that illustrate the physics;
- Carry out research in contemporary physics, and present critically assessed summaries as scientific reports and presentations;
- Use qualitative and quantitative reasoning to produce approximate solutions to scientific questions involving advanced topics in physics.
Examination (2 hours): 23%
Assignments and computational projects: 43%
Seminar contributions: 34%
Each week:
- One 1-hour lecture
- One 1-hour tutorial class
- One 1-hour lecture/computational laboratory session
- One 1-hour seminar
- Eight hours of independent study
See also Unit timetable information