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Guided learning journeys that build knowledge step by step.
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This learning path equips undergraduate engineering students with the knowledge to analyze nuclear power's role in climate change mitigation. It covers the carbon-free electricity context, lifecycle emissions, baseload power characteristics, and integration with IPCC decarbonization scenarios.
This learning path introduces undergraduate engineering students to nuclear-powered desalination, covering desalination technologies (RO, MSF, MED) and their integration with nuclear reactors for cogeneration of power and water. It builds on reactor systems and thermodynamics to explore technical, economic, and environmental considerations.
This advanced learning path provides a comprehensive understanding of nuclear propulsion systems for both marine and space applications. It covers fundamental reactor physics, naval reactor design, submarine propulsion, nuclear thermal rockets, and advanced space propulsion concepts, emphasizing the unique engineering challenges and operational requirements of each domain.
This path provides a systematic introduction to the decommissioning of nuclear facilities. It covers the regulatory and technical framework, the main decommissioning strategies and stages, as well as the critical aspects of waste management, cost estimation, and site remediation. The goal is to equip undergraduate engineering students with a foundational understanding of the entire decommissioning process.
This learning path provides undergraduate engineering students with a comprehensive understanding of nuclear power plant operations, covering reactor physics, systems, and operational procedures from startup to refueling, with an emphasis on safety.
This learning path guides undergraduate engineering students through the analysis of Boiling Water Reactor (BWR) design and operation. It builds from nuclear engineering fundamentals to core-specific topics such as thermal-hydraulics, reactor kinetics, and safety systems, culminating in transient and accident analysis.
This learning path guides undergraduate engineering students through the fundamental principles and systems of Pressurized Water Reactors (PWRs). It covers reactor physics, primary and secondary loops, key components like steam generators and pressurizers, safety systems, and control mechanisms, culminating in an analysis of PWR design and operation.
This learning path equips graduate students and researchers with the knowledge and skills to design nuclear reactor cores, covering neutronics, thermal-hydraulics, materials, and optimization. It progresses from fundamental physics to advanced computational methods and practical design considerations, culminating in a capstone project.
A comprehensive graduate-level path covering the theory and application of Monte Carlo methods to nuclear systems, including random walk processes, variance reduction, criticality, shielding, and burnup, with hands-on use of MCNP.
A graduate-level learning path that develops the theoretical foundations and practical skills needed to apply radiation transport methods to shielding design. It covers particle interaction physics, transport equations, computational methods, buildup factors, and shielding optimization techniques.