Eastern Michigan University

What you'll study

This programme provides a solid foundation in classical and modern physics alongside targeted courses in nuclear and particle physics. You will study core subjects such as mechanics, electromagnetism, quantum mechanics, statistical mechanics and thermodynamics, supported by a sequence of laboratory courses that develop experimental technique, data analysis and instrumentation skills.

Specialist modules typically include introductory and advanced nuclear physics, particle physics and detection methods, radiation and health physics, accelerator principles, and nuclear instrumentation. Computational physics and mathematical methods are emphasised throughout, with coursework in numerical modelling, scientific programming and data analysis. The curriculum culminates in a senior research project or honours thesis, where students work closely with faculty on experimental or theoretical investigations in nuclear or particle physics.

• Core theoretical courses: classical mechanics, electromagnetism, quantum mechanics, statistical physics
• Laboratory and experimental training: general physics labs, electronics for physicists, radiation detection and measurement
• Specialist topics: nuclear physics, particle physics, accelerator physics, radiation safety
• Supporting courses: advanced calculus, linear algebra, differential equations, computational physics
• Capstone: independent research project, seminar presentations and literature review

Entry requirements

Entry is at undergraduate level and requires a high‑school diploma or equivalent with strong preparation in mathematics and science. Applicants should have completed courses in calculus (or pre-calculus) and physics; high performance in these subjects is expected. Where available, A‑levels, IB higher level, Advanced Placement (AP) credits or comparable qualifications in mathematics and physics strengthen an application.

Typical departmental expectations include demonstrated ability in college preparatory mathematics, laboratory experience where possible, and readiness for a calculus‑based physics sequence. Transfer students are considered; transfer credit for calculus, introductory physics and related general education may be evaluated on an individual basis. Prospective students who need additional preparation may be advised to take placement tests or enrol in prerequisite courses before starting upper‑division physics modules.

Career prospects

Graduates are prepared for a wide range of careers in scientific and technical fields. Many proceed to graduate study in physics, nuclear engineering, medical physics or related disciplines. Employment pathways for graduates include laboratory technician and research assistant roles at universities and national laboratories, positions in the nuclear power and energy industry, radiation safety and regulatory roles, and work in instrumentation, detector development and accelerator facilities.

Additional career options include medical imaging and health‑physics support roles (often requiring postgraduate certification), instrumentation and electronics engineering, data science and analytics, systems engineering, and secondary school physics teaching (with appropriate certification). The degree also provides strong quantitative and problem‑solving skills valued in finance, software development and consulting.

Why study at Eastern Michigan University

Eastern Michigan University offers a physics programme with small class sizes and direct access to faculty, enabling close mentorship and hands‑on research opportunities for undergraduates. The department emphasises experimental training and practical skills, with modern teaching laboratories and courses in radiation detection and measurement that align with the nuclear and particle physics focus.

Students benefit from opportunities to undertake independent research projects, present at departmental seminars and collaborate with faculty whose interests span nuclear and particle topics. EMU's location and professional networks help facilitate internships and cooperative experiences with regional research facilities, industry partners and healthcare providers. The programme also prepares students for graduate study by providing rigorous coursework, computational training and supervised research experience.