Atomic/Nuclear Physics, Nuclear Materials-Fuels, Sustainability
Announcement
MSE1074F / MSE474F · Fall 2026 · Atomic Energy Materials Systems & Sustainability
Overview
A fundamental course that provides a grounding in nuclear science, engineering and applications. Subject areas covered include atomic-nuclear physics, nuclear materials, nuclear reactor physics, radiation fundamentals — detection, safety, and health physics, radioisotopes and nuclear medicine, advanced materials and manufacturing for next-generation reactors and systems, future nuclear reactors — small modular reactor (SMR), fusion, and energy sustainability.
Background
As part of the Atomic Energy Materials and Systems (AEMS) nuclear cluster at the University of Toronto, MSE 1074F — AEMSS Fundamentals I is a core course forming the basis for the MEng degree with Emphasis in Nuclear Engineering.
This course can be taken individually or consecutively with other courses in the cluster. It is open to all graduate students at the Master (MEng, MASc) and PhD levels in the Faculty of Applied Science and Engineering as well as Faculty of Arts and Science. The course is also open to senior undergraduates as MSE 474F in both Faculties.
Syllabus
MSE 1074F comprises six thematic subject areas, each delivered over two 3-hour lectures, including assigned readings and learning exercises. Lectures may include experimental or simulated demonstrations/illustrations.
Atomic/Nuclear Physics, Nuclear Materials-Fuels, Sustainability
Radiation Detection, Safety and Health Physics
Radioisotopes, Nuclear Medicine & Allied Applications
Nuclear Reactor Physics, Nuclear Regulatory Codes and Standards
Advanced Materials & Manufacturing: Next-Generation Nuclear Materials
Fusion and Small Modular Reactors
Schedule
Lectures and Tutorials are delivered in-person, and will be accessible synchronously via a Teams link.
Why enroll
These courses provide a robust technical foundation and insight into real-world nuclear systems, preparing students for careers in industry, research, government, and advanced nuclear technologies. Students gain knowledge that is directly applicable to nuclear energy, advanced manufacturing, medical applications, and sustainable technologies, while exploring cutting-edge tools like robotics and AI in nuclear systems.
Students will also gain hands-on insights into nuclear systems, participate in site visits and local workshops, and interact with industry experts and researchers, preparing them for careers in nuclear energy, healthcare, and advanced materials sectors.