Idaho State University

What you'll study

The undergraduate curriculum combines core engineering fundamentals with nuclear-specific coursework and laboratory experience. Typical topics include calculus, differential equations, classical mechanics, thermodynamics, heat transfer, fluid mechanics, and electrical circuits, alongside specialised nuclear courses such as reactor physics, nuclear materials, radiation detection and measurement, radiation transport, radioisotope production, and nuclear systems design.

Practical work is an important component: students undertake laboratory classes in instrumentation and radiation measurements, hands-on experiments in thermal-fluid and materials testing, computer modelling using codes common in the industry, and a capstone senior design project that integrates multidisciplinary engineering skills. Electives and seminars allow study in areas such as nuclear fuel cycle, decommissioning and waste management, nuclear instrumentation, and medical applications of radiation.

Entry requirements

Applicants are normally expected to have completed secondary education with strong performance in mathematics and physics; chemistry is also recommended. Typical preparation includes courses in calculus and advanced mathematics where available. Admission decisions consider academic transcripts, letters of recommendation, and statements of purpose; applicants transferring from other institutions should provide college transcripts and descriptions of completed technical coursework.

Prospective students who are unsure about their preparation can often take preparatory or bridge courses in calculus and physics. International applicants must demonstrate comparable academic qualifications and proficiency in English according to university policies.

Career prospects

Graduates with a degree in nuclear engineering have a range of career paths available across government, industry and healthcare. Common roles include reactor operations and engineering, nuclear plant design and safety analysis, instrumentation and controls, radiation protection and health physics, and work on fuel cycle, waste management and decommissioning projects.

Many alumni find employment with utilities, national research laboratories, federal and state regulatory bodies, engineering consultancies, and companies specialising in medical isotopes and radiation technologies. The programme also prepares students for graduate study or professional engineering licensure where applicable.

Why study at Idaho State University

Idaho State University offers a programme with a strong regional and technical focus, benefiting from established connections with national laboratories and nuclear employers in the region. Students gain practical experience through laboratory work, research opportunities and internship pathways that emphasise applied skills sought by industry.

The faculty combine academic teaching with applied research, and the department supports multidisciplinary collaboration across engineering and the physical sciences. For students seeking hands-on training, industry links and a curriculum grounded in both fundamentals and nuclear-specific practice, Idaho State provides routes into the nuclear workforce and preparation for continued study.