University of Michigan

What you'll study

The programme provides a foundation in calculus, differential equations, classical mechanics and electromagnetism before moving into core nuclear engineering subjects. Early courses cover thermodynamics, materials science, fluid mechanics and heat transfer, followed by specialised modules in radiation physics, nuclear reactor theory, neutron transport, radiation detection and measurements, reactor design and safety, and radiation protection.

• Core engineering fundamentals: calculus, linear algebra, classical physics, materials, thermodynamics, fluid mechanics, heat transfer.
• Nuclear-specific topics: reactor physics and dynamics, neutron transport methods, radiation measurement and instrumentation, nuclear fuel cycles, reactor safety and licensing, radiological health physics.
• Computational and experimental practice: numerical methods, Monte Carlo simulation, modelling of nuclear systems, laboratory courses with hands-on experiments.
• Capstone project: team-based senior design project addressing a practical nuclear engineering challenge, often linked to industry or faculty research.
• Electives and breadth: options in fusion technology, nuclear materials, medical physics, policy and risk analysis; opportunities to take electives across engineering, physics and public policy.

Undergraduates have access to laboratory and research facilities, and many students take part in faculty-led research projects or internships during the degree.

Entry requirements

Applicants are expected to have strong preparation in mathematics (calculus) and physics from secondary education, as well as coursework in chemistry where available. Typical successful candidates demonstrate high academic achievement in STEM subjects and strong problem-solving skills.

• Academic background: rigorous high-school curriculum with advanced mathematics and physics.
• Preparation: facility with calculus and basic laboratory work; coursework or experience in computer programming is advantageous.
• Application materials: academic transcripts, personal statement demonstrating interest in nuclear engineering, and references. International applicants should demonstrate English proficiency as required by the university.
• Additional considerations: participation in STEM extracurriculars, research experience, internships or relevant projects strengthens an application.

Career prospects

Graduates enter a range of technical and scientific careers. The degree prepares students for roles designing, analysing and operating nuclear systems, as well as for graduate study.

• Energy sector: power plant design and operation, reactor engineering, plant safety and regulatory compliance.
• National laboratories and government: research and development, nuclear safeguards, policy advising and regulatory work.
• Medical and industrial applications: medical physics, radiation therapy technologies, radiopharmaceutical production and industrial radiography.
• Aerospace and defence: radiation effects on electronics, space nuclear systems, and related engineering roles.
• Further study: many graduates pursue master’s or doctoral research in nuclear engineering, materials science, health physics or related disciplines.

Why study at University of Michigan

The University of Michigan’s Department of Nuclear Engineering and Radiological Sciences is a long-established programme that combines rigorous coursework with substantial research and laboratory opportunities. Undergraduates benefit from access to dedicated facilities, hands-on laboratory courses and opportunities to work with faculty on active research projects.

• Research-enabled learning: students can engage with faculty research in areas such as reactor physics, radiation detection, materials for extreme environments and nuclear fuel cycles.
• Unique facilities: the department’s laboratory infrastructure supports practical experience in radiation measurement, reactor experiments and materials characterisation.
• Industry and professional links: strong connections with national laboratories, utilities and industry provide internship and employment pathways; active student chapters of professional societies offer networking and professional development.
• Flexible pathways: the programme supports specialisation through electives, minors or combined programmes, and prepares students for both professional practice and postgraduate study.