Foundational Chemical Reaction Engineering: Rate Theories

Chemical Reaction Engineering (CRE) provides the essential link between chemistry and industrial process design. Without a solid understanding of how fast reactions occur, optimizing a chemical plant is impossible. This course focuses on mastering the foundational theories of reaction kinetics. By completing this material, you will be able to mathematically describe the speed of chemical transformations, predict how environmental factors influence reaction rates, and prepare the necessary kinetic input for designing industrial reactors. What you'll learn: * Understand the core definitions: reaction rate, order, molecularity, and stoichiometry. * Apply experimental data to determine empirical rate laws and kinetic constants. * Analyze the influence of temperature using the Arrhenius relationship and activation energy. * Derive rate expressions for complex mechanisms, including parallel, series, and reversible reactions. * Configure the foundational parameters necessary for computational kinetic modeling and simulation. This course begins with fundamental terminology and definitions before progressing to empirical rate law determination and the theoretical models that explain reaction behavior. You will then practice applying these principles to common reaction systems. This course is designed for absolute beginners in Chemical Reaction Engineering. No prior knowledge of kinetics or advanced mathematics is required. Start building your core engineering knowledge today.