University of North Dakota

What you'll study

The programme combines advanced coursework with an extended research thesis in topics across nuclear structure, nuclear reactions, neutrino physics, detector development, accelerator-based experiments and particle phenomenology. Early doctoral study typically emphasises core graduate-level courses in quantum mechanics, statistical mechanics, classical electrodynamics and advanced mathematical methods, followed by specialised seminars and reading courses in nuclear and particle physics.

• Core and advanced modules: Quantum theory at the advanced level, many-body physics, scattering theory, quantum field theory or advanced particle physics (theory track), and experimental methods in nuclear/particle physics.
• Specialist topics: Nuclear structure and reactions, weak interactions and neutrino physics, hadron physics, detector systems and instrumentation, radiation detection and measurement, data analysis and Monte Carlo techniques.
• Research training: Laboratory rotations or integration into an active research group, proposal-writing and journal-club seminars, and participation in collaborative experiments or theoretical projects.
• Thesis: The PhD culminates in an original research dissertation, defended orally after submission, based on work conducted under the supervision of a faculty advisor.

Entry requirements

Applicants are normally expected to hold a relevant master’s degree in physics or a closely related subject, or an exceptional bachelor’s degree with strong preparation for graduate study. Typical preparation includes undergraduate and, where applicable, graduate coursework in quantum mechanics, electromagnetism, classical mechanics and mathematical methods.

• Academic transcripts: Evidence of strong academic performance in physics and mathematics courses.
• Research experience: Prior laboratory or computational research is strongly preferred; applicants should describe research projects and any resulting presentations or publications.
• Supporting documents: A statement of purpose outlining research interests, curriculum vitae, and at least three academic or research references.
• English language: Proof of English proficiency where applicable, in line with University of North Dakota graduate admissions policy.

Career prospects

Graduates with a PhD in Nuclear and Particle Physics are prepared for careers in a variety of sectors. Common paths include university faculty positions and postdoctoral research roles in experimental or theoretical physics, employment in national and international research laboratories, and technical roles in accelerator facilities or detector development.

• Research scientist roles in national laboratories and large-scale collaborations.
• Instrumentation, detector design and data analysis positions in industry (including medical imaging and radiation instrumentation).
• High-performance computing and data science roles that leverage statistical and computational skills developed during the degree.
• Policy, science communication and education careers, including secondary and tertiary teaching and outreach.

Why study at University of North Dakota

The University of North Dakota offers a doctoral environment characterised by small cohorts and close faculty mentorship, enabling hands-on involvement in experimental apparatus, computational projects and collaborative experiments. Graduate students benefit from multidisciplinary interactions across physics, engineering and applied science, access to on-campus laboratory space and instrumentation, and opportunities to join external collaborations and student-led research initiatives.

Doctoral students are frequently supported through graduate assistantships that combine research and teaching experience, helping to build both technical expertise and professional skills. The department emphasises personalised supervision, a supportive collegial atmosphere and preparation for careers in research, academia and industry.