Georgia Institute of Technology

What you'll study

The Master's in Nuclear Engineering combines core coursework, elective specialisation and a research or project component. Students typically take advanced modules in reactor physics and dynamics, radiation transport and shielding, radiation detection and measurements, thermal-hydraulics of nuclear systems, nuclear materials and fuel behaviour, and probabilistic risk assessment. Computational methods and numerical simulation play a central role, with courses covering Monte Carlo and deterministic transport methods, multi-physics modelling, and data analysis for nuclear systems.

Electives allow deeper focus on areas such as fusion science and technology, radiological engineering and health physics, nuclear fuel cycle and waste management, nuclear instrumentation and controls, materials for extreme environments, and nuclear security and safeguards. The programme offers thesis and non-thesis options: the thesis route emphasises original research under a faculty advisor, while the non-thesis route typically requires a substantial design project or additional coursework.

Typical structure

• Core required courses covering fundamental nuclear engineering topics.
• Elective courses to build specialisation in chosen subfields.
• A research thesis, capstone project or professional internship depending on the chosen option.
• Seminar participation and opportunities to work in campus laboratories, including hands-on experience with the campus research reactor and radiation instrumentation.

Entry requirements

Applicants are expected to hold a bachelor’s degree in nuclear engineering, another engineering discipline, physics or a closely related science. Successful candidates normally demonstrate strong preparation in calculus, differential equations, classical physics, thermodynamics, and introductory engineering courses; specific undergraduate coursework in reactor theory, radiation physics or numerical methods is an advantage.

Admissions decisions are based on academic records, letters of recommendation, a personal statement outlining objectives and research interests, and transcripts. International applicants must demonstrate English language proficiency through recognised tests unless exempt. Where applicable, relevant work experience or research experience will strengthen an application. The programme considers each application holistically; formal minimum scores or cutoffs are not listed here.

Career prospects

Graduates enter a wide range of sectors that rely on expertise in nuclear and radiation science. Common career paths include roles in commercial nuclear power utilities and vendors, national laboratories and government research organisations, regulatory agencies and nuclear safety bodies, and companies providing nuclear services such as instrumentation, fuel-cycle management and waste treatment.

Other destinations include medical and industrial radiation applications—such as medical physics, radiation therapy, diagnostic imaging and isotope production—plus defence, fusion research, consultancy, computational modelling firms and energy policy organisations. Many graduates also pursue doctoral study or research careers in academia and national labs. The strong quantitative and modelling skills developed by graduates are also valued in adjacent fields such as materials science, thermal systems and advanced manufacturing.

Why study at Georgia Institute of Technology

Georgia Tech's School of Nuclear and Radiological Engineering is embedded within a top-tier engineering environment that emphasises interdisciplinary research and industry relevance. The institute hosts a campus research reactor and well-equipped laboratories for radiation detection, materials testing and computational simulation, giving students practical, hands-on experience.

Located in a major metropolitan area, the programme benefits from access to regional industry, national laboratory collaborations and a broad professional network for internships and employment. Faculty research covers experimental, computational and policy-relevant topics in nuclear science, allowing students to work on contemporary challenges such as advanced reactor concepts, materials under extreme conditions, fusion science, radiological protection and nuclear security. Career support services and active alumni connections further assist graduates in transitioning into technical and leadership roles across the nuclear and radiation sectors.