Nuclear Science and Engineering (Thesis)
Master of Science
Delivery Options
Fall 2026 Deadline
Priority: December 15th
Domestic: July 1st
International: March 1st
Department
Program Overview
A new generation of nuclear energy and technology is taking shape, and with it, a growing demand for experts who can lead this new era. As nuclear energy expands to meet global needs, industries are looking for engineers who can solve complex problems, manage risk and deliver reliable, high-performance systems.
The Master of Science in Nuclear Science and Engineering at Colorado School of Mines positions you to meet this moment. This program builds on your undergraduate foundation with advanced study in nuclear systems, radiation science and applied engineering analysis, preparing you to solve problems at the intersection of physics, engineering and large-scale systems where precision, safety and reliability matter. Through hands-on experiences alongside expert faculty, you will strengthen skills in nuclear systems analysis, radiation interactions, computational modeling and data-driven decision making.
You will graduate ready to take on advanced technical roles in areas such as energy, national security, medical technologies, research infrastructure and more. You’ll also have the right expertise and experience to continue into doctoral study. Regardless of which path you take, you’ll step into a field that is shaping the future—and you’ll be ready to lead it.
Program Detail
The Master of Science in Nuclear Science and Engineering is an interdisciplinary on-campus program that blends rigorous coursework with hands-on research so you can confront engineering challenges head on. You’ll tackle topics such as nuclear systems, radiation physics, reactor analysis, computational methods, materials behavior in radiation environments and safety analysis. Your work will connect engineering analysis with applied physics and systems-level thinking—experience that mirrors real-world technical environments.
In this program, you’ll define a research question related to nuclear science and engineering, conduct analytical, experimental or computational research and then communicate your findings through a written thesis and oral defense. Research topics often integrate engineering analysis with applied physics and systems modeling.
Designed for those ready to specialize, this program builds the knowledge depth and research capability to advance into high-impact roles or continue to doctoral study to help advance what’s possible for the future of nuclear science and engineering.
Program Opportunities
Research-driven learning:
You engage in faculty-led research focused on nuclear systems, radiation science and applied analysis.
Interdisciplinary collaboration:
The program draws from engineering, physics and applied science across Mines.
Computational and analytical experience:
Research emphasizes modeling, simulation and data analysis of complex systems.
Program Faculty
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Application Requirements
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Bachelor's degree
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GRE: Not Required
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Letters of Recommendations (3 letters).
Two letters are required for current Mines students. -
Resume or Curriculum Vitae (CV)
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Statement of Purpose
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Transcripts
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International students please review the English proficiency requirements
Program Curriculum
View Academic CatalogWorld-Class Labs, Centers & Facilities
The Nuclear Science and Engineering Center supports the research relationship and experimental infrastructure used by Mines faculty and researchers at the U.S. Geological Survey’s TRIGA Mark I reactor facility at the Denver Federal Center (located five miles from the Mines campus). Led by Professor Thomas Albrecht, the center’s facilities include experimental systems for gamma spectroscopy, neutron activation analysis and neutron radiography, electron and optical microscopy for nuclear materials analysis, and wet labs for chemical analysis.
Mines is home to a fully equipped laboratory dedicated to chemical experiments with radioactive materials from tritium, the lightest radioactive nuclide, to einsteinium, the heaviest element available in weighable quantities. In addition to a full suite of research-grade counting equipment, the facilities include equipment for thermodynamic and kinetic studies of chemical reactions and for characterization of chemical separations or geological transport.
High Performance Computing (HPC) systems are available to faculty across the university and are actively used in research by faculty in the Nuclear Science and Engineering program.
Salary Outlook
Median salary for recent program graduates is $88,000. Learn more about Mines' comprehensive career development resources and this degree's salary potential.
Employers who seek Mines graduates include:
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Frequently Asked Questions
What is the value of a master’s degree in nuclear science and engineering?
This degree provides advanced technical depth and research experience that strengthen your ability to analyze, design and manage complex nuclear and radiation-based systems.
What advances are shaping nuclear science and engineering today?
- Increased use of computational modeling and simulation
- Greater focus on system safety and reliability
- Integration of advanced materials into nuclear systems
- Expanded application of radiation science in medicine and research
What career opportunities will I have with this graduate degree?
Graduates pursue roles such as nuclear engineer, systems analyst, radiation engineer, research scientist or technical consultant. Many continue into doctoral programs.
What industries hire individuals with this degree?
Industries include nuclear technology, engineering services, national laboratories, government agencies, defense and medical technology.
What types of research are common in this program?
Research areas often include reactor and system analysis, radiation transport, materials behavior, safety assessment and computational modeling of nuclear systems.
Featured Alumni
Rebekah Moline '22
During her time at Mines studying nuclear engineering, Rebekah Moline earned international recognition as a Marie Skłodowska-Curie Fellow, a highly competitive award supporting advanced research and global engagement. A nontraditional student, Moline began her higher education journey at community college before earning a bachelor's in physics. She chose Mines for its nuclear engineering program—the only one of its kind in Colorado—preparing her to contribute to global efforts advancing safe, low-carbon nuclear technologies through work with the International Atomic Energy Agency.