Gain a thorough understanding of classical physics at an advanced level and explore theories of quantum mechanics and general relativity.

Provide context for your research and demonstrate your knowledge of current literature in the field.

Discover key mathematical methods used by physicists including basic linear algebra and vector space theory.

Carry out an extended, independent research project, in conjunction with one of the departmental research groups.

Receive training in research skills and methodology.

Carry out a self-study project in an area of your choice, with work assessed by coursework and practicals.

Further your knowledge of supersonic compressible flows, shock physics, inertial confinement fusion and high energy density physics.

Cultivate your understanding of light-matter interactions, optical imaging and metrology, and explore the opportunities for optical techniques in biomedicine.

Understand the key physical concepts underlying laser and nonlinear optics and their contemporary applications.

Discover how physical principles are used to generate contrast in modern medical imaging, nuclear diagnostics and MRI.

Learn how physical principles are to generate contrast in modern medical imaging using X-rays and ultrasound.

Become familiar with the operation principles and technology of optical fibre networks and the factors that can limit light transmission and the information it carries.

Learn the basics of modern cosmology, including the foundations of the Hot Big Bang theory.

Consider key concepts of general relativity including the new world view of four-dimensional Lorentzian spacetime and how the universe can be modelled by the Friedman metric.

Uncover the quantum nature of light and its interaction with atoms.

Discover the properties required for the Lagrangian of a field theory and understand how the form of the Standard Model Lagrangian follows from symmetries.