Michigan State University

What you'll study

The programme builds a firm foundation in classical and modern physics, then moves into specialised courses that address the structure and interactions of atomic nuclei and fundamental particles. You will study both the theory and experimental techniques used in contemporary nuclear and particle physics, and you will be encouraged to participate in active research projects.

Typical modules and topics

• Core physics sequence: introductory mechanics, electromagnetism, waves and optics, quantum mechanics and statistical mechanics.
• Mathematics and computation: calculus, differential equations, linear algebra, and computational physics methods used for simulation and data analysis.
• Laboratory training: intermediate and advanced physics labs emphasising experimental design, data acquisition, error analysis and instrumentation.
• Nuclear and particle courses: nuclear physics, particle physics, nuclear structure, reaction mechanisms, and detectors and instrumentation for radiation measurement.
• Accelerator and instrumentation topics: accelerator physics fundamentals, radiation safety, electronics for particle detection, and experience with beamlines and detectors.
• Research and capstone: independent research projects or senior thesis, often carried out in collaboration with on-campus facilities or national laboratories.

Programme structure

Students typically complete general education and mathematics prerequisites in the early years, followed by sequential physics courses and labs. Upper-level electives allow focus on nuclear and particle physics. Many students combine the physics major with a minor or a second major (for example mathematics, computer science or engineering) to broaden technical skills. Opportunities exist for course credit through supervised research and internships.

Entry requirements

Applicants should have a strong secondary-school background in mathematics and physics. Successful candidates typically demonstrate competence in calculus and an introductory physics sequence, and show evidence of analytical problem-solving skills. US applicants normally present a high-school diploma with competitive grades; international applicants should have the equivalent qualifications. Admissions may consider standardised test scores where provided, letters of recommendation, and personal statements that describe interest in experimental or theoretical physics.

Incoming students without a calculus background should expect to take preparatory coursework. Placement tests and advising help determine the appropriate first-year mathematics and physics sequence. Undergraduate research experience, summer programmes or science competitions strengthen an application but are not strictly required.

Career prospects

Graduates with a physics degree focused on nuclear and particle physics have a wide range of career paths. Many continue to graduate study in physics, nuclear engineering, or related fields and pursue research careers in academia or national laboratories. Others find roles in:

• national and international research facilities (accelerator centres, observational laboratories)
• medical physics and radiological sciences (clinical physics, instrumentation development)
• energy and nuclear industry (reactor physics, safeguards, radiation protection)
• instrumentation and detector development, electronics and applied optics
• data science, software engineering and quantitative analyst roles that leverage strong programming and modelling skills
• science education and outreach at secondary and tertiary levels

Undergraduates who engage in research and internships gain a significant advantage for both employment and competitive graduate-school applications.

Why study at Michigan State University

Michigan State University offers particular strengths in nuclear and particle physics through close links to major experimental facilities and an active research faculty. Students benefit from access to on-campus laboratories and opportunities to work with nationally significant infrastructure, enabling hands-on work in accelerator-based experiments and detector development.

The department supports undergraduate research placements with faculty groups and collaborations with national laboratories, giving students practical experience in experimental techniques, data analysis and publications. Small-class instruction, advising, and outreach programmes help guide majors toward internships, summer research experiences and graduate study. The broader campus provides interdisciplinary collaboration opportunities in areas such as materials, computational science and engineering, which complement a specialised programme in nuclear and particle physics.