Nuclear Engineering

The Bachelor of Science in Nuclear Engineering at Virginia Tech offers students a comprehensive and rigorous education in the principles and applications of nuclear science and engineering. This program is designed to prepare graduates for diverse careers in the nuclear industry, research institutions, government agencies, and academia. The curriculum combines foundational courses in mathematics, physics, chemistry, and engineering principles with specialized classes focusing on nuclear reactor theory, thermal-hydraulics, radiation protection, nuclear fuel cycle, and nuclear instrumentation. Students will gain hands-on experience through laboratory work, simulations, and research projects, fostering practical skills alongside theoretical knowledge. The program emphasizes the importance of safety, environmental stewardship, and ethical considerations in nuclear technology. Students are encouraged to participate in internships, cooperative education, and research collaborations to enhance their practical understanding and industry readiness. The faculty comprises experts with extensive research and industry experience, dedicated to mentoring students and advancing the field of nuclear engineering. The department also provides opportunities for students to engage in cutting-edge research, including nuclear materials, reactor design, and radiation applications, contributing to innovations in energy production, medical imaging, and national security. Upon graduation, students will be well-equipped to pursue professional engineering licensure, advanced graduate studies, or various career paths in the nuclear sector. The program’s modern facilities and resources support a comprehensive educational experience, preparing students to become leaders in developing safe, sustainable, and innovative nuclear technologies.

Earning an MS degree requires completing a 30-credit-hour program subject to the following requirements.  Except as indicated, courses must be taken for a grade, not Pass/Fail.  MS students must submit a Plan of Study before completing the first semester registered as a MS student.  No grade below B- is allowed for any core course. 
1. Master of Science Courses: A minimum of 21 graded credit-hours of courses must be taken including the following:
a. Core Courses (15 graded credit-hours) which include four required courses and one mathematics/statistics course: 
12 credit-hours of required courses: 

• (1) NSEG 5124 Nuclear Reactor Analysis
• (2) NSEG 5204 Nuclear Fuel Cycle
• (3) NSEG 5604 Radiation Detection and Shielding  
• (4) either NSEG 5424 Reactor Thermal Hydraulics
• or MSE 5384G Advanced Nuclear Materials

A minimum of 3 graded credit-hours of a mathematics or statistics course from an approved list of courses. 
b. Elective Courses: Six credit-hours of any science, engineering or mathematics 5000-level, or higher, courses as approved by the Advisory Committee are required. However, if only six credit-hours of NSEG 5994 are applied toward the degree instead of nine credit-hours (see Research Requirements below), the student must take an additional 3 credits of any science, engineering or mathematics 5000-level, or higher course, as approved by their Advisor, to satisfy the requirement for a total of 30 credit-hours for the M.S. degree.
The graded course work may include 5984/6984 Special Study. However, a student cannot exceed a maximum of 6 credit hours of 5974, 5984, and 6984. 
2. Master of Science Research Requirement:  A minimum of 6 credit-hours of NSEG 5994 Research and Thesis, not to exceed 9 credit-hours, must be completed.  
Additional Requirements:  All students must satisfactorily pass an oral final examination, write and successfully defend a thesis.  
Seminar Program: All students must participate in the nuclear engineering program seminar series.
Ethics:  Beginning Fall 2014, all graduate students must meet the Graduate School's Ethics requirement. 
Course work From Another Institution (MS and MEng):  Per the Graduate School, not more than 50% of required graded course work from another institution may be transferred. All transferred course credits must have the grade of "B" or higher and must have been earned while enrolled as a graduate student.  Transfer work is evaluated/approved when the Plan of Study is submitted.  All transfer credits must be accompanied by transcripts which verify grades. Course descriptions are also required. Transfer courses on the Plan of Study must be approved by the student’s Advisory Committee.
It is anticipated that students will complete the MS program in two years following undergraduate studies in a nuclear-related field, or with a minor in a nuclear-related field. If a student already has a B.S. in Nuclear Engineering, they are expected to complete the MS program in less time, perhaps in as few as three semesters.
No courses below the 5000-level will be accepted for graduate credit.

• Transcripts. Include a scanned copy of your college transcripts with your online application, then arrange for an official copy to be sent to us after you receive an offer of admission.
• Letters of Recommendation. Check to see whether your department requires letters of recommendation from references. If so, you can include their email addresses in your online application, or have them send paper copies directly to your program’s department.
• Application Fees. Degree-seeking students must include a $75 fee with their application, though check to see if you qualify for a waiver or reduced fee.
• TOEFL Paper 620.0, Computer 260.0, iBT 105.0
• GRE General Test 
• Minimum GPA: 3.0
• Institution code: 5859

Scholarships

• University Scholarships
• Global Education
• Assistantships

The Nuclear Engineering program at Virginia Tech offers a comprehensive education in the principles and applications of nuclear science and engineering. This program prepares students for careers in the nuclear industry, research, and policy, by providing a solid foundation in nuclear physics, reactor theory, thermal-hydraulics, radiation detection, and nuclear materials. The curriculum integrates coursework in mathematics, physics, and engineering to ensure students gain a thorough understanding of nuclear systems, safety protocols, and environmental considerations. Students also have the opportunity to engage in hands-on laboratory experiences, research projects, and internships that connect theoretical knowledge with practical application.

Virginia Tech’s program emphasizes safety, innovation, and sustainable energy solutions, reflecting current trends and future challenges in nuclear technology. The faculty comprises leading experts in nuclear science and engineering who contribute to cutting-edge research in areas such as reactor design, nuclear waste management, and radiation health physics. The university’s state-of-the-art facilities support experimental learning and enable participation in national research initiatives. The program often encourages collaboration with government agencies, industry partners, and research institutions, fostering a dynamic and applied learning environment.

Graduates of the program are well-equipped to pursue professional careers in nuclear power plants, regulatory agencies, research laboratories, or further academic study through advanced degrees. Virginia Tech’s commitment to research and workforce development in nuclear engineering is reflected in its strong industry partnerships and employment placement rates. The program also adheres to accreditation standards maintained by recognized engineering accreditation bodies, ensuring quality and recognition across the sector.

Overall, Virginia Tech's Nuclear Engineering program combines rigorous academic coursework with practical experience, promoting the development of skilled engineers capable of advancing nuclear technology safely and sustainably. The university continually updates its curriculum to align with technological advancements and evolving societal needs, making it a leading choice for students interested in nuclear science and engineering careers.