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This graduate-level learning path equips learners with the theoretical and analytical tools to apply electrochemical kinetics to energy storage devices. It covers fundamental thermodynamics, electrode kinetics (Butler-Volmer), mass transport, and impedance spectroscopy, culminating in the practical analysis of batteries and supercapacitors.
This advanced graduate-level path equips learners to analyze how energy storage systems enable higher penetration of variable renewable energy. It covers the physics of solar and wind variability, storage technologies and their operational characteristics, and the modeling and optimization methods used to assess storage value in grid integration scenarios.
This advanced graduate-level path equips learners with the analytical skills to evaluate how energy storage integrates into grid systems. It covers grid fundamentals, storage technologies, power electronics, grid services, sizing methods, and economic analysis, culminating in a comprehensive capstone project.
This path equips graduate students and researchers with the knowledge to analyze emerging battery chemistries, focusing on lithium-sulfur (Li-S) and sodium-ion (Na-ion) systems. It covers fundamental electrochemistry, materials science, and specific challenges such as polysulfide shuttling and electrode material selection, culminating in comparative analysis and research design.
This advanced learning path equips graduate students and researchers with the knowledge to analyze solid-state battery technologies, covering fundamental electrochemistry, materials science, and engineering challenges. It progresses from core concepts to specialized topics on solid electrolytes, interfaces, dendrite suppression, and manufacturing, culminating in a comprehensive understanding of current research directions.
This graduate-level path systematically explores advanced battery materials, including Si anodes, Li-metal anodes, solid electrolytes, Ni-rich cathodes, Li-S, and conversion electrodes. It builds from foundational electrochemistry and materials science through advanced characterization, electrolyte design, and mechanical modeling, culminating in full-cell integration and critical case study analysis.
This learning path guides undergraduate engineering students through the fundamentals of Battery Management Systems (BMS), covering cell monitoring, state estimation, balancing, and safety protection. Starting with basic electrical and programming concepts, it progresses to advanced BMS design and application, ensuring a systematic understanding of how BMS ensures safety, performance, and longevity of battery systems.
This learning path guides undergraduate engineering students through the analysis of hydrogen storage methods, covering compressed gas, liquid hydrogen, metal hydrides, complex hydrides, and sorbents. It emphasizes gravimetric and volumetric density metrics and builds on foundational chemistry and materials science knowledge.
This learning path guides undergraduate engineering students through the analysis of thermal storage technologies, covering sensible, latent, and thermochemical storage, with applications in concentrated solar power and buildings. It builds on thermodynamics and heat transfer fundamentals to develop a systematic understanding of storage principles, performance metrics, and design considerations.
This learning path provides a systematic understanding of flywheel energy storage (FES) systems, covering fundamental principles, component design, and system integration. It is designed for undergraduate engineering students with a background in mechanics and electrical engineering, progressing from basic concepts to application-level analysis.