Fundamentals of Nonequilibrium Thermodynamics for Electrochemical Systems

Modern energy storage systems rely on efficient electrochemical processes within complex porous electrodes. To truly optimize these systems, you must first master the science of non-equilibrium thermodynamics. This course demystifies the fundamental principles governing transport phenomena in electrochemical cells. You will gain a solid theoretical foundation necessary for analyzing battery efficiency, capacity fade, and design improvements. What you'll learn: * Understand the foundational concepts of equilibrium thermodynamics and their extension to non-equilibrium states. * Apply transport equations and conservation laws to model mass and charge movement through porous media. * Analyze coupled phenomena, including diffusion, migration, and convection, within high-surface-area electrodes. * Practice deriving and interpreting the governing equations for porous electrode models used in electrochemical simulations. * Configure basic theoretical representations of modern battery architectures, such as lithium-ion and flow cells. We begin by defining essential terminology and thermodynamic laws, then proceed through detailed explanations of transport mechanisms and the derivation of porous electrode models. The course emphasizes applying these theoretical concepts to real-world electrochemical system analysis. This course is designed for absolute beginners in specialized electrochemical modeling, particularly those interested in battery science, chemical engineering, or materials science. No prior experience with non-equilibrium thermodynamics is required. Start building your expertise in advanced energy system analysis today.