Chemical Reaction Engineering: Non-Ideal Flow and Catalysis

Chemical Reaction Engineering (CRE) is the cornerstone of chemical process design, defining how raw materials are transformed into products efficiently and safely. This course provides a solid foundation in analyzing and designing reactors under complex, real-world conditions, preparing you to tackle problems involving mixing effects and solid catalysts. What you'll learn: * Understand the fundamental concepts of reaction kinetics and stoichiometry for various reaction types. * Analyze non-ideal flow patterns using Residence Time Distribution (RTD) theory and dispersion models. * Master the principles of heterogeneous catalysis, including diffusion, adsorption, and reaction steps on solid surfaces. * Design and size industrial reactors (CSTRs and PFRs) for complex reactions under both ideal and non-ideal flow conditions. * Apply basic computational methods to model and solve complex reactor performance equations. * Practice evaluating reactor performance and optimizing operational parameters for efficiency. We begin with core kinetic concepts and ideal reactor analysis before moving into the complexities of non-ideal flow and the specialized requirements of solid-catalyzed systems. The material emphasizes practical analysis through written examples and problem sets. This course is designed for beginners in chemical, petrochemical, or process engineering. No prior experience in reactor design is required; we start with the necessary foundational definitions and terminology. Start building your expertise in industrial reactor design today.