Idaho State University

What you'll study

The programme provides a balance of advanced coursework and research or project work. Students study core topics such as reactor physics and dynamics, radiation transport and shielding, radiation detection and measurement, nuclear materials and fuel behaviour, and thermal hydraulics. Computational methods for nuclear engineering, instrumentation and controls, and radiation protection and health physics are commonly offered as either required courses or electives.

Coursework is augmented by laboratory work and practical training in radiation detection and measurement, computational labs using transport and reactor analysis codes, and opportunities for hands‑on experience through partnerships with research centres. Students may choose a thesis track focused on original research supervised by faculty, or a non‑thesis/project track emphasising advanced coursework and an applied capstone project.

• Core areas: reactor theory, radiation transport, radiation protection, nuclear materials, thermal hydraulics
• Methods and tools: computational modelling, instrumentation and measurements, data analysis
• Options: thesis (research) or non‑thesis (project/advanced coursework)

Entry requirements

Applicants are expected to hold a bachelor's degree in nuclear engineering, mechanical engineering, electrical engineering, physics, or a closely related technical discipline. A competitive undergraduate record in mathematics, physics and engineering fundamentals is required. Official transcripts, a statement of purpose outlining research interests and career goals, and letters of recommendation are required as part of the application.

Where relevant, applicants may be asked to demonstrate proficiency in calculus, differential equations and basic programming or numerical methods. Standardised test requirements (for example GRE) and minimum GPA expectations are set by the university and can vary by admission cycle; international applicants must meet the university's English language proficiency requirements.

Career prospects

Graduates from the Master's in Nuclear Engineering typically move into technical and professional roles across the nuclear sector and related industries. Typical career destinations include reactor operations and engineering, plant licensing and regulatory compliance, radiation protection and health physics, nuclear materials testing and qualification, and instrumentation and controls.

Other common pathways include research and development positions at national laboratories and research centres, consulting roles in energy and safety, and technical positions in medical and industrial radiography, instrumentation companies, and government agencies. Graduates who choose the thesis route may also continue to doctoral studies or pursue academic and research careers.

Why study at Idaho State University

Idaho State University offers the Master of Science in Nuclear Engineering with strong links to regional and national research organisations, providing access to collaborative projects and practical internship opportunities. The programme emphasises applied training and small cohort supervision, enabling close mentoring from faculty with expertise in reactor analysis, radiation detection, and nuclear materials.

Students benefit from laboratory facilities, computational resources and industry connections that support hands‑on learning and professional development. The department's collaborations with national laboratories and industry partners enhance prospects for internships, research placements and employment after graduation.