The BSc Mathematical Physics at the University of Edinburgh brings together advanced mathematics and core theoretical physics to help students understand the fundamental principles shaping the universe. It is ideal for students who enjoy abstract reasoning, problem-solving, and exploring the mathematical structure behind physical theories.
Curriculum Structure
Year 1
In the first year, students develop essential mathematical and physical foundations through modules such as Physics 1A: Foundations, Introduction to Mathematics at University, Mathematics for Physics 2, Linear Algebra, and Introduction to Mathematical Analysis. These courses build fluency in calculus, algebra, and physical principles, preparing students for more rigorous work ahead.
Year 2
The second year deepens students’ understanding of modern physics and mathematics. Core topics include Modern Physics, Dynamics, Fourier Analysis, and Vector Calculus, complemented by mathematical courses such as Several-Variable Calculus, Probability, and Statistics. Students also gain hands-on experience through programming exercises and data-driven physics applications.
Year 3
In year three, students move into advanced theoretical topics, including Principles of Quantum Mechanics, Lagrangian Dynamics, Electromagnetism and Relativity, Thermal Physics, and Honours Complex Variables. Optional modules such as Differential Equations, Honours Algebra, or Research Methods in Physics allow students to specialise in areas that match their interests and career ambitions.
Focus Areas (string)
Quantum mechanics, electromagnetism, classical dynamics, complex analysis, algebra, thermodynamics, mathematical modelling, particle physics, cosmology.
Learning Outcomes (string)
Graduates will be able to apply advanced mathematics to physical systems, analyse complex theoretical models, solve rigorous quantitative problems, and communicate mathematical and physical ideas clearly and logically.
Professional Alignment (Accreditation)
This program aligns with Institute of Physics (IOP) standards for physics education and provides a strong academic foundation for professional roles in science, technology, and quantitative industries.
Reputation (Employability / Rankings)
The University of Edinburgh is highly regarded internationally for both mathematics and physics, offering excellent research facilities, strong employer recognition, and high-quality graduate outcomes across scientific, analytical, and technical careers.
The BSc Mathematical Physics at Edinburgh provides rigorous training in both mathematics and physics, with a strong emphasis on applied problem-solving, experimentation, and computational modelling. Students learn through a blend of lectures, interactive workshops, laboratory sessions, and research-informed teaching. From the first year onward, the programme encourages hands-on engagement with both disciplines, helping students develop analytical, computational, and experimental abilities that are essential for scientific and technical careers.
A smooth transition into specific experiential opportunities includes:
Physics laboratory work: Students take part in experimental sessions covering mechanics, waves, electromagnetism, modern physics, and electronics, gaining practical experience in data collection, analysis, and scientific reporting.
Computational and programming skills: Students are trained in programming and numerical modelling using tools such as Python and MATLAB, preparing them for simulations and advanced computational analysis in later years.
Problem-solving workshops: Regular small-group sessions help students deepen understanding of mathematical methods and apply them to physical systems.
Group projects: Collaborative assignments develop teamwork, communication, and applied analytical thinking by tackling mathematical or physical topics as a team.
Advanced mathematical and physical modelling: Students take higher-level courses that integrate mathematical structures with physical theories, including quantum mechanics, relativity, differential equations, and advanced mathematical methods.
Independent project opportunities: In later years, students may undertake research-focused or investigative projects that link mathematics and physics under academic supervision.
Study abroad options: Eligible students may spend a year at a partner university overseas, adding international experience to their academic development.
Academic and peer support: The programme provides access to dedicated study spaces, drop-in centres such as MathsBase, peer-assisted learning schemes, and departmental academic advisors.
Facilities: Students benefit from access to physics teaching laboratories, computational physics facilities, mathematics study hubs, specialized science libraries, and research-oriented environments at the King’s Buildings campus.
Graduates of the BSc Mathematical Physics degree often find roles in scientific research, data science, engineering, and finance. Typical positions include research assistant, data analyst, quantitative risk analyst, and software developer in scientific computing. The programme gives you a strong foundation in both theoretical physics and advanced mathematics, making you well-suited for intellectually demanding roles:
University Services: The student support system includes academic mentors, School-level Student Advisers, and peer-mentoring resources. The Careers Service helps with internships, CVs, interview preparation, and connecting with alumni in physics and tech.
Employment Stats & Salaries: While there are no publicly available breakdowns for this specific programme, physics and mathematics undergraduates from Edinburgh frequently go into well-paid roles in research, finance, data analytics, and technology.
University–Industry Partnerships: The department engages in collaborative research with prominent science institutions, offering students opportunities to work on real-world applications of physics through projects and placements.
Long-term Accreditation Value: The degree provides a robust theoretical and practical basis that benefits professional advancement and eligibility for roles in scientific institutions or high-tech industries.
Graduation Outcomes: By graduating, you will have demonstrated mastery in classical and quantum mechanics, mathematical modelling, computation, and problem-solving, and will likely have completed a final-year research or project-based module.
Further Academic Progression:
After completing the BSc, you can enrol in MSc programmes in Mathematical Physics, Theoretical Physics, Applied Mathematics, or Data Science.
You may also pursue a PhD in physics, mathematical physics, or computational physics, building on any research or project work done as an undergraduate.



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