Nuclear Engineering and Radiological Sciences
The Bachelor of Science in Nuclear Engineering and Radiological Sciences at the University of Michigan offers a comprehensive program for students interested in nuclear energy, radiation, and advanced engineering applications. The curriculum emphasizes reactor physics, radiation safety, thermodynamics, and applied nuclear technology, preparing students to understand, model, and analyze complex nuclear systems. Students engage in laboratory experiments, computational simulations, and research projects, developing skills necessary to design safe and efficient nuclear processes, evaluate radiation risks, and implement evidence based solutions. This program cultivates both technical proficiency and analytical expertise, equipping graduates to succeed in energy, research, and engineering fields.
Learners participate in an interdisciplinary environment where nuclear engineering intersects with materials science, mechanical engineering, and environmental studies. The curriculum offers opportunities for applied reactor design, radiation monitoring, and energy systems modeling, allowing students to explore real world challenges and solutions. Through mentorship, collaborative research, and hands on projects, students refine problem solving, computational, and communication skills. With a focus on evidence based engineering and applied research, the program prepares graduates to pursue careers in nuclear energy, regulatory agencies, research laboratories, and advanced engineering applications.
Key information
Key Facts
- Program Title: Nuclear Engineering and Radiological Sciences
- Degree Type: Bachelor of Science
- Duration: 4 years
- Mode of Study: Full-time, On Campus
- Application Deadline: 01 February 2026
- Location: University of Michigan, United States
- Field of Study: Nuclear Engineering
- Language of Instruction: English
Program Structure
Year 1 - Foundations in Nuclear Engineering
• Calculus and Differential Equations
• General Physics and Thermodynamics
• Introduction to Nuclear Engineering
• Chemistry for Engineers
Year 2 - Core Nuclear Concepts
• Reactor Physics
• Radiation Detection and Measurement
• Materials Science for Nuclear Applications
• Engineering Analysis and Modeling
Year 3 - Advanced Applications
• Nuclear Systems Design
• Radiological Safety and Protection
• Computational Methods in Nuclear Engineering
• Elective Modules in Energy or Engineering
Year 4 - Capstone and Professional Integration
• Senior Design Project / Thesis
• Nuclear Energy Systems
• Applied Nuclear Laboratory
• Seminar in Nuclear Engineering
Career Opportunities
Graduates of this program acquire advanced technical, analytical, and problem solving skills that prepare them for careers in nuclear power plants, research laboratories, regulatory agencies, energy consulting, and radiation safety management. They develop expertise in reactor design, radiological analysis, and applied engineering, enabling them to implement evidence based solutions, optimize nuclear systems, and ensure safety and compliance. The program also prepares graduates for roles in energy policy, advanced research, and engineering development. Graduates leave ready to apply technical proficiency, analytical insight, and practical engineering skills to professional environments requiring critical thinking and engineering expertise.
Why Choose This Program
This program is ideal for students seeking a curriculum that integrates engineering principles with nuclear science, applied research, and computational modeling, offering mentorship, hands on projects, and professional development opportunities. Learners benefit from faculty expertise, laboratory experiences, and rigorous coursework that strengthen problem solving, analytical, and communication skills. The curriculum emphasizes evidence based engineering, technical rigor, and applied research, preparing graduates to design and manage nuclear systems, solve complex engineering challenges, and contribute to sustainable energy solutions. With its focus on technical excellence and applied proficiency, the program provides a dynamic academic environment for students aspiring to careers in nuclear energy, research, and advanced engineering.
Contact Information
For further information, please contact the admissions office at:
Phone: 734-764-8129
Email: rackadmis@umich.edu
Address: Graduate Admissions Office, University of Michigan, Ann Arbor, MI 48109, USA
