Michigan State University

What you'll study

The PhD programme combines advanced coursework with a major research project leading to a doctoral dissertation. Students take core graduate courses in quantum mechanics, statistical and thermal physics, electrodynamics and advanced mathematical methods before moving into specialised classes and seminars tailored to nuclear and particle physics.

• Core and advanced coursework: graduate quantum mechanics, quantum field theory (introductory or specialised), many-body theory, nuclear physics, and experimental methods in nuclear/particle physics.
• Specialist topics: nuclear structure and reactions, nuclear astrophysics, hadronic physics, neutrino physics, heavy-ion collisions, detector instrumentation and radiation measurement, lattice QCD and computational nuclear theory.
• Research training: hands-on experimental work with accelerator beams and detectors, simulations and theoretical model development, data analysis techniques, and high-performance computing. Students also complete research rotations with faculty groups before selecting a thesis supervisor.
• Seminars and professional development: regular research seminars, journal clubs, teaching practicum or assistantships, and training in scientific communication and grant writing.
• Thesis: after completing coursework and qualifying exams, students focus on original research, culminating in a written dissertation and oral defence. Projects frequently involve collaborations with national laboratories, large-scale experiments or interdisciplinary research centres.

Entry requirements

Applicants are normally expected to hold a strong undergraduate degree in physics or an equivalent discipline; many successful applicants also hold a relevant master's degree. Typical preparation includes undergraduate courses in classical mechanics, electromagnetism, quantum mechanics, statistical mechanics, and laboratory experience.

• Academic background: a bachelor’s (or master’s) degree in physics or closely related field with high academic standing. Transcripts should show substantial preparation in theoretical and experimental physics.
• Research experience: prior research, laboratory work or a thesis is highly desirable and strengthens applications—particularly experience with nuclear/particle experiments, computational projects, or theory.
• Supporting documents: academic transcripts, statement of purpose describing research interests and fit with faculty, and letters of recommendation from academic or research supervisors.
• English language: where applicable, evidence of English proficiency is required in line with university policy.
• Funding and assistantships: admission is typically accompanied by a graduate assistantship or fellowship offer for eligible candidates; prospective students should consult the department for details of funding packages and expectations (teaching, research duties).

Career prospects

Graduates of the programme pursue careers across academia, national laboratories and industry. The training combines deep physical insight with quantitative and technical skills that are widely transferable.

• Academic research: tenure-track and research faculty positions in physics and related fields, often after postdoctoral appointments in nuclear or particle physics groups.
• National and international laboratories: staff scientist and technical roles at facilities such as accelerator centres, isotope laboratories and neutrino or collider experiments.
• Research and development in industry: roles in instrumentation, detector development, medical physics, energy, aerospace or defence companies.
• Computational and data careers: data science, software engineering, quantitative analysis and modelling positions that value high-level numerical, statistical and programming skills.
• Education and outreach: secondary and tertiary teaching, science communication and public engagement roles.

Why study at Michigan State University

Michigan State University is a leading centre for nuclear and particle physics research, offering access to distinctive experimental and theoretical resources. The campus hosts strong faculty groups working across the full spectrum from instrumentation and experimental campaigns to theoretical and computational nuclear physics.

• World-class facilities: proximity to and scientific leadership in the Facility for Rare Isotope Beams (FRIB) and legacy expertise from the National Superconducting Cyclotron Laboratory provides unique opportunities for beam-based experiments and isotope research.
• Collaborative environment: active collaborations with national laboratories, international experiments and interdisciplinary centres—students commonly take part in multi-institution projects and large-scale experiments.
• Strong theoretical and computational support: programmes in nuclear theory, lattice QCD, and computational physics provide training in modelling and high-performance computing alongside experimental work.
• Graduate training and support: structured mentoring, seminar series, teaching experience and funding opportunities help prepare students for research careers and professional development.