MSci in Mathematics and Physics

4 Years On Campus Bachelors Program

Durham University

Program Overview

Durham’s MPhys Mathematics and Physics (G430) is an integrated master’s degree for students who want to explore the universe through mathematical precision and physical insight.
It’s ideal for ambitious problem-solvers who enjoy theoretical modelling, experimental science, and computational analysis. You’ll study advanced modules from both departments — from quantum mechanics and cosmology to differential equations and mathematical physics — with a strong emphasis on research and specialisation.

Curriculum structure

Year 1: Core Foundations in Mathematics and Physics
You’ll begin with Foundations of Physics and Discovery Skills in Physics, covering mechanics, waves, quantum physics, and electromagnetism, while developing lab techniques and programming skills. In mathematics, you’ll study Single Mathematics A and B or Linear Algebra and Calculus, building a strong base in algebra, calculus, and mathematical reasoning.

Year 2: Expanding Theoretical and Analytical Depth
Second year includes Foundations of Physics A and B, which deepen your understanding of quantum mechanics, thermodynamics, and condensed matter. You’ll also take Mathematical Methods in Physics and Laboratory Skills and Electronics. In mathematics, modules like Analysis in Many Variables and Linear Algebra II introduce multivariable calculus, vector spaces, and rigorous proof techniques.

Year 3: Specialisation and Research Preparation
You’ll study advanced physics modules such as Modern Atomic and Optical Physics, Condensed Matter Physics, and Planets and Cosmology. In mathematics, you’ll choose from options like Complex Analysis, Numerical Analysis, and Mathematical Physics. You’ll also complete a Computing Project and begin preparing for your final-year research.

Year 4: Integrated Master’s Research and Advanced Study
The final year focuses on independent research and advanced topics. You’ll undertake a substantial Mathematics and Physics Project, working closely with academic staff. Optional modules may include Quantum Field Theory, General Relativity, or Advanced Mathematical Methods, depending on your interests and career goals.

Focus areas:
Quantum mechanics, differential equations, cosmology, mathematical physics, thermodynamics, electromagnetism

Learning outcomes:
Mathematical modelling, scientific programming, data analysis, theoretical reasoning, research design, interdisciplinary collaboration

Professional alignment (accreditation):
Physics component accredited by the Institute of Physics (IOP) — meets the educational requirement for Chartered Physicist (CPhys) status

Reputation (employability rankings):

Top 5 in the UK for physics and mathematics (The Times and Guardian University Guides 2026)
3rd in the UK for physics (Complete University Guide 2026)
University of the Year (The Times and Sunday Times Good University Guide 2026)

Experiential Learning (Research, Projects, Internships etc.)

Students in Durham’s MPhys Mathematics and Physics (G430) program gain hands-on experience in experimental physics, mathematical modelling, and computational analysis — all within a research-intensive environment. From first-year labs to final-year research projects, you’ll work with advanced equipment, simulation tools, and digital platforms that mirror professional scientific practice.

Here’s how Durham brings experiential learning to life:

Discovery Skills in Physics: First-year module combining lab techniques, programming, and scientific communication — includes group work and digital tools.
Laboratory Skills and Electronics: Second-year module introducing instrumentation, electronics, and computational modelling — essential for hands-on physics experience.
Computing Project: Third-year module using simulation tools and programming to solve physics problems — ideal preparation for research or analytical careers.
Mathematics and Physics Project: Final-year integrated research project — students work closely with academic staff on advanced topics in theoretical or applied science.
Durham University Library: Extensive resources in mathematics and physics, including specialist journals, databases, and e-books.
Rochester Building Physics Labs: Equipped for optics, electronics, and condensed matter experiments — accessible for interdisciplinary work.
Mathematics Department Resources: Includes access to mathematical software and collaborative spaces for problem-solving and group projects.
Institute for Particle Physics Phenomenology (IPPP): Offers seminars and research exposure for students interested in theoretical and mathematical physics.

Progression & Future Opportunities

Graduates of Durham’s MPhys Mathematics and Physics (G430) are exceptionally well-prepared for high-level careers in science, technology, and research. With advanced training in both disciplines, many go on to roles such as quantitative analyst, research physicist, data scientist, or aerospace engineer, applying their skills in cutting-edge industries and academic settings.

Here’s how Durham supports your future:

Careers & Enterprise Centre: Offers tailored support for integrated master’s students, including one-to-one career coaching, employer networking, and access to internships through the Durham Internships & Collaborative Enterprise (DICE) scheme.
Graduate Outcomes: 91% of Durham physics graduates and 90% of mathematics graduates are in employment or further study within 15 months of graduation.
Salary Potential: Graduates from this program typically earn £38,000–£45,000 in early career roles, with strong progression in finance, tech, and research.
Industry Partnerships: Students benefit from links with organisations such as Rolls-Royce, IBM, BAE Systems, and the UK Atomic Energy Authority, especially through final-year research projects and collaborative opportunities.
Accreditation Value: The physics component is accredited by the Institute of Physics (IOP), meeting the full educational requirement for Chartered Physicist (CPhys) status.
Graduate Destinations: Alumni work at CERN, Google, JP Morgan, Dyson, and leading universities and research institutes worldwide.

Further Academic Progression:
Graduates are ideally positioned to pursue PhD programs in mathematical physics, quantum theory, cosmology, or applied mathematics. The integrated master’s structure and final-year research project provide a strong foundation for doctoral study and academic careers.