Scaling Analysis of Energy Storage in Porous Electrodes

To engineer the next generation of high-capacity batteries and supercapacitors, you must understand the underlying physical processes that limit their performance. This course provides a structured introduction to the scaling analysis of electrochemical transport and kinetics within porous electrodes, turning complex differential equations into intuitive design guidelines. You will learn to identify the dominant physical mechanisms governing energy storage systems and predict how changes in material properties affect overall device performance. What you'll learn: - Understand the foundational electrochemistry and transport laws governing porous media - Derive scaling relationships to predict battery charging rates and efficiency losses - Analyze the coupling between ion transport in electrolytes and charge transfer at pore walls - Apply dimensionless parameters to simplify complex electrochemical system models - Identify performance bottlenecks like diffusion limitations and ohmic drops in electrodes This course begins with essential electrochemical definitions and foundational transport equations before guiding you through the systematic process of scaling and simplification. Through clear, step-by-step written derivations and practical engineering scenarios, you will develop a deep intuitive grasp of electrode design. This course is designed for chemical engineers, materials scientists, and battery technology enthusiasts who want to transition from qualitative understanding to rigorous engineering analysis. No advanced background in electrochemistry is required, though basic calculus and physics are recommended to get the most out of the mathematical derivations. Start reading today to build a strong theoretical foundation in electrochemical engineering and accelerate your energy storage designs.