University of Minnesota

What you'll study

The programme delivers the standard core physics curriculum—classical mechanics, electromagnetism, quantum mechanics and statistical physics—followed by advanced and specialised modules that emphasise nuclear and particle physics. Teaching mixes lectures, problem classes and laboratory work and is designed to develop mathematical, computational and experimental skills needed for subatomic physics.

• Core courses: introductory mechanics and electromagnetism, modern physics, intermediate quantum mechanics, mathematical methods for physicists, laboratory physics and computational physics.
• Advanced and specialised modules: nuclear physics, particle physics/elementary particles, experimental methods in nuclear and particle physics, detectors and instrumentation, accelerator physics basics, and advanced quantum mechanics.
• Skills and methods: data analysis, statistics for physicists, programming for scientific computing (Python/C++/Matlab), electronics for physics experiments, and signal processing.
• Research and practical experience: undergraduates are encouraged to take a senior research project or honours thesis, and the department supports placements on faculty-led experiments, collaborations with national laboratories and participation in summer research programmes.

Entry requirements

Applicants must meet the University of Minnesota's undergraduate admission requirements and should present a strong high‑school record with emphasis on mathematics and science. Typical preparation includes at least two years of high‑school algebra and geometry, one year of calculus (or equivalent) and one year of high‑school physics; courses in calculus-based physics and additional mathematics (multivariable calculus, differential equations) are advantageous.

• Academic preparation: solid grades in mathematics (calculus) and science; AP/IB credits or A‑level equivalences in calculus and physics can be helpful in placing out of introductory courses.
• Recommended skills: facility with algebra and trigonometry, introductory exposure to calculus and basic programming experience is useful for early computational coursework.
• International applicants: must demonstrate equivalent secondary qualifications and required English proficiency as set by the university.
• Progression: admission to the physics major typically follows enrolment at the university and satisfactory performance in foundational calculus and introductory physics courses; consult the department for specific internal major declaration policies.

Career prospects

Graduates with a physics degree focused on nuclear and particle physics have a broad range of career options. Many proceed to graduate study (master's or PhD) in nuclear, particle, or accelerator physics, or in related theoretical and experimental fields. Others take technical roles that capitalise on their quantitative and instrumentation skills.

• Research and academia: graduate research positions and academic careers in physics and related disciplines.
• National and international laboratories: technical, scientific and instrumentation roles at facilities such as accelerator centres and government labs.
• Industry and applied science: roles in engineering, instrumentation, medical physics, radiation science, and companies specialising in sensors or electronics.
• Data and software: data science, software development and quantitative analysis roles that draw on modelling and computational skills developed during the degree.
• Other careers: technical consulting, finance, patent law (with further qualification), and science communication or education.

Why study at University of Minnesota

The University of Minnesota offers a comprehensive physics programme with active research groups in nuclear and particle physics, providing undergraduates close contact with faculty who work on experiments and theory. Students benefit from opportunities to join research projects, access to on‑campus experimental facilities and a supportive environment for undergraduate research.

The department maintains collaborations with regional and national research facilities, enabling students to participate in larger experiments and internships. Additionally, the university's strong engineering, computer science and medical schools create cross-disciplinary pathways for students interested in instrumentation, computing or applied uses of nuclear science.