University of Michigan

What you'll study

The programme builds a strong foundation in classical mechanics, electromagnetism, quantum mechanics and statistical physics before introducing specialised topics in nuclear and particle physics. Early years emphasise calculus, linear algebra and mathematical methods for physicists alongside laboratory skills and computational physics.

• Core courses: introductory mechanics and electromagnetism, modern physics, laboratory methods, mathematical methods for physics, quantum mechanics I–II, statistical mechanics.
• Nuclear and particle specialisms: nuclear physics, nuclear structure and reactions, particle physics and the Standard Model, experimental particle detectors, radiation interactions with matter, accelerator physics basics.
• Experimental and computational practice: advanced laboratory courses, detector instrumentation and electronics, data analysis, Monte Carlo simulation and high‑performance computing applications.
• Capstone and research: senior thesis or project option under faculty supervision, independent research placements with physics groups, and opportunities to participate in collaborations that link to national and international facilities.

Students may also take complementary courses in Nuclear Engineering and Radiological Sciences, applied mathematics, computer science and statistics to broaden methodological training. Elective options allow focus toward experiment, theory or computational physics.

Entry requirements

Admission is to the University of Michigan and to the Physics programme through the College of Literature, Science, and the Arts; entry is competitive and based on a holistic review of academic preparation and potential. Typical preparation includes a strong secondary‑school record in mathematics (calculus or precalculus) and physics, with evidence of aptitude in problem solving and quantitative work.

• Academic preparation: high school coursework in calculus and physics is expected; additional coursework in chemistry and computer programming is advantageous.
• Grades and assessment: competitive overall academic grades and strong performance in STEM subjects; standardised test policies vary by applicant type and are considered in context of the full application.
• Supplementary material: personal statement, teacher recommendations (preferably from mathematics or science instructors), and examples of independent projects or research experience strengthen an application.
• International applicants: required to demonstrate equivalent academic preparation and English language proficiency through recognised qualifications.

Career prospects

Graduates with a physics degree emphasising nuclear and particle physics are well placed for a wide range of careers. Many proceed to graduate study (MSc/PhD) in experimental or theoretical physics, nuclear engineering, medical physics or related disciplines. Those entering the workforce directly apply their analytical and technical skills across multiple sectors.

• Academic and national laboratory research: positions at universities, national labs and large collaborations in nuclear and particle science.
• Industry and technology: roles in instrumentation and detector development, accelerator technology, semiconductor and photonics industries, and applied R&D.
• Healthcare and regulatory science: medical physics, radiation safety, dosimetry and clinical technology roles in hospitals and industry.
• Data‑intensive careers: data science, software engineering, quantitative analysis and finance, where modelling and statistical skills are highly valued.
• Education and outreach: teaching at secondary level, science communication and public engagement positions.

Why study at University of Michigan

The University of Michigan offers a vibrant, research‑intensive environment with a long tradition in both experimental and theoretical physics. Undergraduates benefit from small‑group mentoring, structured advanced laboratory training and easy access to faculty research groups.

• Research opportunities: numerous chances for undergraduate research in nuclear and particle physics, including projects tied to major collaborations and national laboratories.
• Interdisciplinary links: strong collaborations with the College of Engineering and the Nuclear Engineering and Radiological Sciences programme, enabling cross‑training in instrumentation, materials and applied radiation science.
• Facilities and partnerships: access to on‑campus laboratories and partnerships with regional and international research facilities for internships and collaborative research.
• Support and career development: structured advising, summer research programmes, and an active alumni network that helps students secure internships, graduate placements and industry positions.

Together, these strengths make the University of Michigan a compelling choice for students seeking rigorous preparation in nuclear and particle physics and pathways into research, technology and technical leadership.