Brandeis University

What you'll study

The programme combines advanced coursework, original research and teaching experience. Early study typically covers core graduate physics topics including advanced quantum mechanics, quantum field theory, classical mechanics, electrodynamics, statistical mechanics and advanced mathematical methods. Specialist courses focus on nuclear and particle physics topics such as nuclear structure and reactions, hadronic physics, weak interactions and neutrino physics, particle phenomenology, detector physics and instrumentation, and computational methods for many-body and lattice problems.

Students attend regular seminars and journal clubs and take part in collaborative research groups. The PhD is built around a supervised research project that leads to a doctoral dissertation; students progress from coursework and rotation-style research in the first years to qualifying/ comprehensive examinations and then to full-time research. Experimental students typically gain hands-on experience with detector design, data acquisition and analysis, while theory students engage in analytical and numerical modelling. Opportunities exist for interdisciplinary work that connects nuclear and particle topics to astrophysics, condensed matter techniques and computational science.

Typical modules and activities

• Advanced Quantum Mechanics
• Quantum Field Theory I and II
• Statistical Physics
• Nuclear Physics: Structure and Reactions
• Particle Physics and Phenomenology
• Experimental Methods and Detector Physics
• Computational Physics and Numerical Methods
• Research seminars, journal clubs and teaching practicum

Entry requirements

Successful applicants normally hold a bachelor's degree in physics or a closely related discipline; many have a master's degree and/or prior research experience. A strong foundation in undergraduate physics is expected, including coursework in quantum mechanics, electromagnetism, classical mechanics and statistical physics, together with good mathematical preparation (calculus, differential equations, linear algebra and complex analysis).

Applications should include academic transcripts, a statement of research interests describing relevant experience and proposed areas of study, and multiple letters of recommendation from academic or research supervisors who can attest to research potential. International applicants for whom English is not a first language are usually required to provide evidence of English proficiency. The admissions committee looks for demonstrated research potential, clear motivation for doctoral study and alignment with faculty expertise.

Career prospects

Graduates of the programme go on to a range of careers in academia, national and international research laboratories, and industry. Typical pathways include postdoctoral positions in theoretical and experimental nuclear and particle physics, staff scientist roles at national labs and large-scale facilities, and instrumentation and detector development roles in industry. The quantitative, programming and problem-solving skills developed in the programme also open opportunities in data science, software engineering, finance, consulting, and technology development.

Alumni are often successful in securing positions that require advanced experimental design, high-performance computing, statistical data analysis, and collaborative project leadership, reflecting the programme's emphasis on both independent research and teamwork.

Why study at Brandeis University

Brandeis offers a close-knit graduate community with strong faculty mentorship and a favourable student-to-faculty ratio, allowing students to develop long-term working relationships with researchers. The university's physics faculty include researchers active in both theoretical and experimental nuclear and particle physics, providing a breadth of research topics and the opportunity to work at the interface of subfields.

The university benefits from its location in the Greater Boston research ecosystem, with easy access to neighbouring universities, national laboratories and collaborative experiments, which expands opportunities for joint projects, access to specialised facilities and interdisciplinary training. Brandeis emphasises professional development through teaching experience, seminars and workshops, preparing students for diverse careers inside and outside academia.