Electrochemical Transport Phenomena: Engineering Problem-Solving

Understanding how ions and species move through electrochemical systems is essential for designing modern batteries, fuel cells, and electrolyzers. Without a firm grasp of transport phenomena, energy devices suffer from high resistance and mass-transport limitations. This course provides a structured, text-based approach to solving complex transport problems in chemical engineering. You will transition from theoretical equations to practical engineering calculations, learning how to model and analyze transport-limited currents, concentration gradients, and cell efficiencies. What you'll learn: - Understand the foundational principles of diffusion, migration, and convection in electrolytes - Apply the Nernst-Planck equation to calculate ionic flux in electrochemical cells - Analyze concentration polarization and mass-transfer-limited currents - Determine potential drops in liquid junctions and membrane separators - Solve practical transport problems with step-by-step analytical methods - Evaluate how transport limitations affect overall battery and fuel cell performance This course begins with essential terminology and the governing physical laws of electrochemical transport. You will then progress through detailed, written problem-solving guides that break down complex differential equations into manageable, logical steps. This course is designed for engineering students, researchers, and professional chemical or energy engineers who want to strengthen their transport calculations. No advanced prior knowledge of electrochemistry is required, though a basic understanding of calculus and general chemistry is recommended. Start mastering electrochemical transport equations today and elevate your device analysis skills.