Physics at Oxford – 2026 Entry Guide

Oxford’s Department of Physics is one of the largest and most research-active in the UK. Research strengths include quantum science and quantum computing, condensed matter and quantum materials, particle physics and CERN collaborations, atomic and laser physics, astrophysics and cosmology, and atmospheric, oceanic and climate physics.

Undergraduates are taught by academics involved in this research. In the fourth year, MPhys students join research groups and complete a substantial project. Projects range from laboratory-based experimental work to theoretical modelling and computational research.

Facilities include the Clarendon Laboratory and the Beecroft Building, which house advanced experimental laboratories and research centres. Laboratory work is an important part of the degree, especially in Years 2 and 3, where students complete structured experimental courses and develop data analysis skills.

Oxford’s course is highly structured. Students who prefer a clear academic progression in Physics from the first week, rather than broader early-year flexibility, often find this appealing. The combination of lectures, practical work and tutorials provides both independence and regular academic feedback.

Average intake is around 173 students per year.

A-level: The typical offer is A*AA. The A* must be in Physics, Mathematics or Further Mathematics. Required subjects are Physics and Mathematics. Further Mathematics is helpful and taken by many successful applicants but is not formally required.

International Baccalaureate: 39 points overall with 766 at Higher Level, including a 7 in Physics or Mathematics.

GCSEs: GCSE performance is considered contextually. There is no fixed cut-off, but strong performance in Maths and Sciences is expected.

Admissions test: All applicants must sit the Engineering and Science Admissions Test (ESAT). Physics applicants take Mathematics I, Mathematics II and Physics. The ESAT is a 2-hour, computer-based test. It assesses mathematical fluency, problem-solving ability and core physics understanding in unfamiliar contexts. Performance in the ESAT plays a significant role in shortlisting for interview.

There is no written work submission for Physics.

Recent admissions data indicates approximately 1,637 applicants for 186 places, giving an applicants-per-place ratio of around 8 to 9 to 1.

Shortlisted applicants are usually invited to two interviews in December. Interviews are academic and problem-focused.

You will be given unfamiliar problems in physics and mathematics and asked to work through them aloud. Interviewers are interested in how you think rather than whether you immediately reach a final answer.

Common themes include applying calculus to physical systems, modelling assumptions in mechanics, interpreting graphs and physical scenarios, and extending A-level ideas into new contexts.

Interviewers often provide prompts or hints to see how you respond and adapt your reasoning. Clear communication is essential. It is better to explain your thought process than to remain silent.

Preparation should focus on ESAT-style problem solving, revisiting A-level mechanics and calculus in depth, practising verbal explanation of solutions, and working through unfamiliar multi-step problems.

Strong candidates show structured reasoning, mathematical control and willingness to refine their approach when guided.

Your personal statement should demonstrate sustained engagement with Physics beyond the classroom. Focus on specific experiences such as independent problem-solving or research, super-curricular reading, public lectures or online courses, and participation in competitions or projects.

Explain what you learned and how your understanding developed. Admissions tutors look for evidence of intellectual curiosity, mathematical fluency and genuine interest in physical principles.

It is helpful to review the official selection criteria on the Department of Physics website and align your preparation accordingly.

Degree: MPhys Physics. UCAS code: F303. Length: 4 years.

Year 1 builds core foundations. According to the official Course Information Sheet, subjects include classical mechanics and special relativity, electromagnetism, circuit theory and optics, mathematical methods I, and differential equations and waves.

Assessment is through end-of-year examinations known as Preliminary Examinations or Prelims. These must be passed to progress but do not count towards final degree classification.

Quantum physics is introduced in Year 2. Other core topics typically include thermodynamics, further electromagnetism, advanced mathematical methods and extended laboratory work. Practical skills and formal lab reports become more demanding.

Year 3 forms Part A of the Final Honour School. Students study advanced topics such as quantum mechanics, atomic physics, condensed matter, particle physics and astrophysics. Laboratory work continues and includes a short project element. Examinations at the end of this year contribute to the final degree classification.

Most students continue into Part B, completing the MPhys. You choose advanced options aligned with your interests and undertake a substantial research project within a department research group. The project is assessed through a written report and, in some cases, presentation or viva-style assessment.

Throughout the degree, tutorials run weekly in small groups, usually pairs, focused on detailed problem-solving.

Oxford vs Cambridge: Both the University of Oxford and the University of Cambridge offer internationally respected Physics degrees.

Course structure differs. Oxford students apply directly for Physics. Cambridge students apply for Natural Sciences and specialise in Physics through the Tripos structure. Cambridge therefore offers more breadth in the first year, while Oxford provides immediate subject focus.

Both courses are mathematically rigorous. Cambridge is often perceived as slightly more mathematically intense in theoretical areas. Oxford integrates substantial laboratory work throughout.

Teaching formats are similar in purpose but different in name. Oxford uses tutorials, usually with two students. Cambridge uses supervisions, often in groups of one to three. Both involve detailed discussion of problem sheets.

Assessment at both universities relies heavily on end-of-year examinations. Oxford’s four-year MPhys structure is integrated from the outset. Cambridge students formally choose whether to continue to Part III for advanced study.

The better fit depends on whether you prefer early specialisation or broader first-year flexibility.

Student life: Physics students typically have several lectures per week, laboratory sessions and weekly tutorial problem sheets. Independent study is essential.

Colleges provide academic and pastoral support. Students join a wide range of societies, including subject-specific groups and general university clubs.

Graduates progress into academia, engineering, finance, data science, technology and research. The course develops strong quantitative and analytical skills valued across sectors.