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Guided learning journeys that build knowledge step by step.
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This learning path introduces high-school students with basic chemistry knowledge to the core principles of electrochemical storage. Starting from redox reactions and electrode potentials, it builds up to understanding electrolytes, cell voltage, and the charge/discharge processes in batteries.
This learning path introduces the fundamental concepts of energy storage, including its definition, importance in energy systems, key performance metrics, and classification by form and duration. It is designed for high school students beginning energy studies, with a foundation in basic physics.
This advanced graduate-level path equips learners with essential research skills for nuclear energy, covering problem formulation, literature review, experimental and computational methods, data analysis, scientific communication, ethics, and reproducibility. It builds on foundational nuclear engineering knowledge and prepares learners to conduct rigorous, publishable research.
This advanced graduate-level path explores the principles, engineering, and applications of nuclear power systems for space exploration. It covers radioisotope thermoelectric generators, space fission reactors, dynamic power conversion, and their roles in deep-space missions, with a focus on systems integration and mission design.
This advanced graduate-level path covers the science and engineering of producing hydrogen using nuclear energy, focusing on high-temperature electrolysis and thermochemical cycles (sulfur-iodine and copper-chlorine) integrated with Very High Temperature Reactors (VHTR). Learners will explore the thermodynamics, materials challenges, and system integration required for efficient nuclear hydrogen production.
This learning path provides graduate students and researchers with a comprehensive introduction to molten salt reactor (MSR) technologies, covering fundamental concepts, design variants, materials challenges, and economic considerations. It progresses from basic nuclear engineering principles to advanced topics such as liquid fuel chemistry, fission product removal, and corrosion, enabling learners to understand the unique aspects and trade-offs of MSRs.
This advanced learning path guides graduate students and researchers through the technical and strategic dimensions of the thorium fuel cycle, from fundamental nuclear physics to advanced reactor concepts, proliferation resistance, and waste management. It emphasizes the conversion of Th-232 to U-233, breeder reactor designs, and comparative analysis with uranium-based cycles.
This learning path guides graduate students and researchers through the fundamental physics and engineering principles of fusion reactors, covering both magnetic and inertial confinement approaches. It progresses from core plasma physics to advanced reactor concepts, including ITER and DEMO, with a focus on current technological status and challenges.
This learning path equips professionals with the knowledge and skills to estimate the costs of nuclear power projects, covering capital costs, operation and maintenance, fuel cycle costs, decommissioning, and cost estimation methodologies. It builds on foundational understanding of nuclear systems and financial principles.
This learning path equips professional engineers and managers with the knowledge to estimate the costs of nuclear power projects, covering capital costs, operation and maintenance, fuel cycle costs, decommissioning, and cost estimation methodologies. It builds on foundational nuclear systems knowledge and financial principles, progressing to advanced cost modeling and risk analysis.