University of Leicester

What you'll study

This programme combines core theoretical physics with practical laboratory work and computational training. In the early years you study fundamental topics such as Newtonian mechanics, electromagnetism, waves and optics, thermodynamics and statistical physics, alongside the mathematical methods needed to analyse physical systems. As you progress you encounter quantum mechanics, atomic and molecular physics, condensed matter and solid state physics, and topics from modern physics including particle physics and astrophysics.

Practical and transferable skills are emphasised through regular laboratory classes, data analysis projects and programming modules using languages and tools common in research and industry. The degree culminates in an individual research project or extended experimental investigation, where you apply experimental, theoretical or computational techniques under academic supervision.

• Core modules: classical mechanics, electromagnetism, mathematical methods for physicists, quantum mechanics, thermal and statistical physics.
• Practical skills: experimental physics labs, instrumentation and electronics, measurement and data analysis.
• Computational training: numerical methods, scientific programming and modelling.
• Optional/advanced topics typically offered: condensed matter physics, astrophysics and cosmology, particle and nuclear physics, optics and photonics, materials physics.

Entry requirements

Applicants are normally expected to have strong qualifications in Mathematics and Physics (or equivalent) at advanced level. Universities typically look for evidence of numeracy, problem‑solving ability and experience of practical work. If you do not hold both Mathematics and Physics at the standard school level, you should contact admissions to discuss your background and any alternative or foundation routes that may be available.

Typical application materials include your academic transcripts, references and a personal statement outlining your interest in physics and relevant experience. International applicants must meet English language requirements and may provide equivalent international school qualifications or recognised foundation programmes.

Career prospects

Graduates with a BSc in Physics have a broad range of career pathways because the degree develops strong analytical, numerical and practical skills. Common destinations include:

• Further study and research: postgraduate masters and PhD programmes in physics and related disciplines.
• Industry and engineering: roles in electronics, materials, instrumentation, renewable energy and manufacturing.
• Technology and computing: software development, data science, modelling and simulation.
• Finance and consulting: quantitative analysis, risk management and technical consulting roles.
• Education and public engagement: secondary teaching (with appropriate teacher training), science communication and outreach.

Many students also move into specialised technical careers such as medical physics or aerospace, typically after additional professional training or postgraduate study. The degree’s emphasis on laboratory technique, computing and research project work is designed to make graduates attractive to employers across sectors.

Why study at University of Leicester

Leicester has an established profile in physical sciences, with active research groups in areas such as condensed matter, particle and space science. The university’s facilities support hands‑on experimental training and computational work, and students can benefit from interaction with research staff and opportunities to join lab‑based projects as part of their final year work.

The city of Leicester offers a compact, affordable student environment with good transport links. The university provides dedicated careers support, employer engagement activities and student societies related to physics and astronomy that help develop professional skills and networks while you study.