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Graduate Nuclear Degree Programs & Requirements

Overview of M.S. and Ph.D. degree pathways, curriculum requirements, and academic milestones.

Degree Programs


Master of Science (M.S.) in Nuclear Engineering

Overview:

  • Non-thesis graduate degree focused on advanced coursework.

Credit Requirements:

  • Minimum 30 credits of graduate coursework.

  • Capstone exam requirement: non-technical essay in final semester.

Outcomes:
Graduates demonstrate core nuclear engineering competency and are prepared for professional practice or further study.

Doctor of Philosophy (Ph.D.) in Nuclear Engineering

Overview:

  • Research-oriented doctoral program.

Pathways:

  • Traditional: Post-M.S. doctoral entry.

  • Direct-admit: From bachelor’s with research emphasis.

Credit & Milestone Requirements:

  • Coursework + Qualifying Exam + Dissertation research.

  • Minimum dissertation research credit hours (e.g., 14).

  • Qualifying exam based on core courses and research competency

Degree Requirements


Master of Science (M.S.) in Nuclear Engineering

  • Required / elective courses: Choose four or more of the following:
    • NUCL 6030 — Graduate Radiation Interactions (3 cr.)
    • NUCL 6050 — Reactor Physics (3 cr.)
    • NUCL 5060 — Reactor Operation & Regulatory Policy (3 cr.)
    • NUCL 6032 — Graduate Radiochemistry (3 cr.)
    • NUCL 7110 — Nuclear Environmental Engineering (3 cr.)
    • NUCL 7220 — Analytical Nuclear Forensics (3 cr.)
    • NUCL 7000 — Health Physics (3 cr.)
    • NUCL 7500 — Nuclear Safeguards (3 cr.)
    • NUCL 7100 — Nuclear Instrumentation (4 cr.)
    • MET E 6210 — Nuclear Materials (3 cr.)
    • CVEEN 6120 — Numerical Methods (3 cr.)
  • Minimum credit hours: 30 graduate credits.
  • Notes: Up to 3 credits of independent research may be taken as NUCL 6900 or NUCL 7900 (department approval required).

Doctor of Philosophy (Ph.D.) in Nuclear Engineering

  • Required / elective courses: Choose two or more of the following:
    • NUCL 6030 — Graduate Radiation Interactions (3 cr.)
    • NUCL 6050 — Reactor Physics (3 cr.)
    • NUCL 7000 — Health Physics (3 cr.)
    • NUCL 7100 — Nuclear Instrumentation (with labs) (3–4 cr.)
    • CVEEN 6555 — Research and Seminar (3 cr.)
    • NUCL 6032 — Graduate Radiochemistry (3 cr.)
    • NUCL 6060 — Reactor Operation & Regulatory Policy (3 cr.)
    • NUCL 7110 — Nuclear Environmental Engineering (3 cr.)
    • NUCL 7220 — Analytical Nuclear Forensics (3 cr.)
    • NUCL 7500 — Nuclear Safeguards (3 cr.)
  • Minimum credit requirements:
    • If student holds an M.S. in nuclear engineering (or related): ≥ 18 graded coursework credits + 14 dissertation research credits.
    • Direct-admit Ph.D. (from B.S.): ≥ 30 graded coursework credits + 14 dissertation research credits.
  • Important milestones & notes:
    • The four required nuclear courses form the foundation of the qualifying exam (typically completed by the fourth semester).
    • Milestone Master’s option: An M.S. may be awarded en route to the Ph.D. after:
      • Completion of ≥ 30 credits of coursework,
      • Successful completion of the qualifying exam, and
      • Submission of one peer-reviewed, first-author paper to a journal approved by the student’s committee.

General Graduate Credit Information

  • Graduate credit hours must be 5000 level or above.
  • Up to 9 graduate credits of non-matriculated coursework may be applied if taken within 3 years and with a final grade of B or better.
  • Up to 6 graduate credits from another institution may be applied (grade of B or better); credit must not have counted toward a prior degree.

Questions about course selection, transfer credit, or milestone timing should be directed to the Nuclear Engineering Graduate Advisor or the student’s supervisory committee.

Hands-On Nuclear Research with Our On-Campus TRIGA Reactor

At the University of Utah, graduate students have access to one of the nation’s few on-campus research nuclear reactors.
Our TRIGA (Training, Research, Isotopes, General Atomics) reactor provides rare, hands-on research opportunities in areas such as radiation detection, isotope production, nuclear forensics, and reactor physics, bridging classroom learning with real experimental experience.
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