The aim of this module is to equip students with mathematical concepts and methods applicable to theoretical physics.

Quantum mechanics is foundational to modern physics and technology, underpinning advancements in fields like quantum computing and materials science. It challenges classical notions of reality with concepts like entanglement and superposition, offering deep insights into the nature of the universe. Studying quantum mechanics is crucial for innovation and research, equipping individuals with the mathematical and physical skills needed to understand nature and contribute and create emerging and future technologies.

Overall, the module aims to equip students with a solid foundation in quantum mechanics and its applications to a level where they are able to critically access recent advances in the subject. Our unique programme leverages students existing knowledge of Hamiltonian mechanics to provide deep insights into the similarities and differences between quantum and classical physics. We further provide a comprehensive introduction to the key contributions of quantum mechanics to science and problem solving in these areas. Topics include tunnelling, hydrogenic atoms as well as the chemical bond and molecular spectra.

Building on Physics Laboratory I, the central aim here is for the student to become a competent experimental physicist who not only understands good experimental technique but can also engineer laboratory equipment and instrumentation.

This module includes a mix of experimental practical sessions, computer workshops and seminars to develop the key skills of an experimental physicist and enhance our students' employability. Students will have the opportunity to design and build their own equipment, collect and analyse data, and link their experimental work to theories that they are investigating in other modules of their programme. Both semesters include a long form project spread over multiple weeks, and in Semester 2 this takes the form of a group project where students can choose their own area of interest.

The aim of this module is for students to become capable in the use of computers in the solution of physics-based problems and experience in a variety of software and language solutions. This involves developing an understanding of the application of computers not just for but also beyond numerical simulation for modelling and simulation related to real-world quantum physics, condensed matter and semiconductor device physics.

The aim of this module is to introduce theoretical astrophysics, physical cosmology, cosmography and aspects of practical astronomy.

The aims of this module are to:

• Further develop aptitude in physics in areas pertinent to Loughborough research strengths. The focus here is on condensed matter and solid state physics.
• To apply notions of electromagnetism, quantum mechanics and statistical mechanics to explain the stability of matter and basic physical properties of metals, insulators and semiconductors starting from microscopic principles.
• To understand the principles of modern characterisation techniques of materials.
• To relate microscopic parameters to properties of solids, often based on the powerful method of dimensional analysis.
• To estimate numerical values of material quantities.
• To retrieve and make use of scientific resources, experimental data from papers and online databases.

The aims of this module are to provide students with a comprehensive understanding of the fundamental principles of thermodynamics and statistical physics. This will include: developing a solid understanding of the laws of thermodynamics and their applications; exploring the microscopic origins of macroscopic thermodynamic properties through kinetic theory; analysing phase transitions and critical phenomena; introducing the principles of statistical physics and their role in describing thermal systems at the microscopic level.