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Guided learning journeys that build knowledge step by step.
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A graduate-level learning path covering the physics and mathematics of nuclear reactor dynamics, from point kinetics to stability analysis, including reactivity feedback and xenon oscillations.
An advanced graduate-level path covering the theoretical foundations and computational methods of neutron transport, from the Boltzmann equation to deterministic and stochastic solution techniques, with applications to criticality and shielding.
This learning path provides a systematic understanding of nuclear non-proliferation and security issues, from foundational nuclear science to advanced policy frameworks. It covers the Treaty on the Non-Proliferation of Nuclear Weapons (NPT), IAEA safeguards and inspections, physical security, and terrorism prevention, integrating technical and policy perspectives.
This graduate-level learning path provides a comprehensive analysis of Small Modular Reactor (SMR) technologies and their applications. It covers fundamental nuclear engineering concepts, SMR design features, types, safety, economics, modular construction, and deployment scenarios, culminating in an assessment of advanced reactor concepts.
This learning path guides graduate students and researchers through the systematic analysis of Generation IV nuclear reactor concepts. It covers fundamental reactor physics and materials science, then examines six advanced reactor types, their unique challenges, and cross-cutting safety and economic considerations.
This graduate-level learning path systematically covers the materials science and reactor physics needed to analyze nuclear fuel behavior under irradiation. It progresses from fundamental concepts through fission product behavior, fuel swelling, fission gas release, fuel-cladding interaction, and thermal cycling, culminating in an integrated understanding of fuel performance.
This advanced learning path equips learners with the principles and practices of criticality safety in nuclear systems. It covers the physics of criticality, the parameters that affect reactivity, control methods, and the analytical tools used to ensure safety. The path emphasizes the practical application of criticality limits and safety analysis in nuclear facility design and operations.
This learning path guides undergraduate engineering students through the fundamentals of nuclear reactor thermal-hydraulics. Starting with thermodynamics and fluid mechanics, it covers heat generation, coolant flow, heat transfer mechanisms, critical heat flux, LOCA analysis, and thermal design principles, culminating in the ability to analyze reactor thermal-hydraulic behavior.
This learning path equips undergraduate engineering students with the foundational physics and biology needed to apply radiation protection principles. It covers the ALARA philosophy, dose limits, shielding, dosimetry, biological effects, and emergency response, with a strong emphasis on real-world application and safety culture.
This learning path introduces undergraduate engineering students to the fundamental principles and regulatory structures governing nuclear safety. Starting with reactor basics, it progresses through defense-in-depth, safety analysis, and regulatory standards, culminating in case studies of severe accidents and their lessons.