School of Nuclear Science and Technology
Academic areas include nuclear energy, nuclear technology and applications, and radiation-related fields.

At a glance
School of Nuclear Science and Technology
Academic areas include nuclear energy, nuclear technology and applications, and radiation-related fields.
The school connects undergraduate and postgraduate education with nuclear research facilities.
Disciplinary identity and research
School of Nuclear Science and Technology | Disciplinary identity and research
Nuclear science includes the physics of nuclei and radiation as well as engineering applications in energy and measurement. Graduate training may draw from particle and plasma physics, materials, detectors and computational modeling. Radiation-related work requires specialized laboratory protocols and appropriate engineering controls. USTC's combination of nuclear education and large scientific facilities creates a context where fundamental theory and experimental applications interact.
Nuclear energy, radiation and technical training
The discipline bridges physics, radiation interactions and technological systems. The School of Nuclear Science and Technology lists undergraduate nuclear engineering education as well as graduate areas in nuclear energy science, nuclear technology and applications, and radiation-related physics.
Experimental safety, measurement and quantitative modeling are central to interpreting radiation processes and their technological uses.
A closer look at School of Nuclear Science and Technology
Nuclear science and technology combines fundamental nuclear processes with radiation measurement and engineered applications. Training may connect reactor physics, detection, materials behavior and radiation safety. The discipline spans technical design and responsible handling of radiation-related systems, linking theoretical models with closely controlled experimentation.
Radiation-related engineering also depends on measurement and shielding. Reliable systems require an understanding of how radiation interacts with matter and how detection data can be interpreted under controlled safety conditions.