Course overview
This course provides an introduction to condensed matter physics, progresses from the level I introduction to optical physics and continues the development of practical problem solving using laboratory experiments. Optics: -ray tracing; ABCD matrix method; cardinal points; optical aberrations and wavefront distortion; interferometry; polarisation and Jones matrices; Gaussian beams. Condensed Matter Physics: -introduction to crystal structures, lattices and bonding; atomic vibrations in crystals and phonon zones, free-electron gas model of metals; nearly-free electron model and band theory; semiconductor crystals; PN Junctions; diodes. Practical work includes laboratory experiments in optics, properties of solids and instrumentation.
Course learning outcomes
- demonstrate an understanding of the propagation of light through paraxial optical systems and interferometersdemonstrate an understanding of the polarisation of light and changes to the polarisation state as it propagates through optical systems
- describe the structure of and bonding in crystalline solids, the nearly-free-electron model and band theory
- demonstrate an understanding of doped semiconductors and abrupt PN semiconductor junctionssolve simple physics problems at a level appropriate to the course content
- make appropriate decisions about the experimental uncertainty associated with every measurement, and analyse uncertainties correctly
- keep a scientific record of experimental work
- analyse the results of experiments and reach appropriate conclusions about them
- work effectively in a small team to complete a complex set of tasks.communicate results orally and in writing