Electrocatalysis Fundamentals for Clean Energy Systems

Developing efficient energy conversion technologies is critical for the transition to sustainable power. Electrocatalysis sits at the heart of this challenge, dictating how effectively we can convert chemical energy into electricity and vice versa. This text-only course provides a clear, foundational pathway into the thermodynamic and kinetic principles that govern electrochemical reactions at the electrode-electrolyte interface. You will start by mastering core concepts, definitions, and the physical chemistry behind charge transfer. From there, you will explore how catalyst surface structures influence reaction rates and learn to evaluate modern electrocatalytic systems used in green hydrogen production and fuel cells. What you'll learn: - Understand the foundational physical chemistry of electrode kinetics and charge transfer - Analyze the thermodynamic principles governing electrocatalytic interfaces - Evaluate catalyst materials for the hydrogen evolution and oxygen reduction reactions - Apply kinetic models like the Butler-Volmer equation to predict reaction rates - Explore modern catalyst design strategies, including surface engineering and active site optimization - Assess the performance of electrocatalysts in fuel cells and electrolyzers This course is structured to build your knowledge from basic electrochemical definitions to complex surface reaction mechanisms, using clear written explanations and step-by-step mathematical derivations. It is designed for engineering students, researchers, and clean energy enthusiasts who have a basic background in general chemistry but are new to electrocatalysis. Dive into the text today to start building your expertise in electrochemical engineering.