Advanced Reaction Engineering and Reactor Design

Chemical reaction engineering lies at the heart of industrial chemical processes, determining the efficiency, safety, and sustainability of chemical manufacturing. This course provides a clear, written guide to understanding how complex reactions behave under real-world conditions. You will progress from foundational kinetic principles to the design and optimization of advanced reactor systems. By completing this text-only course, you will gain the analytical skills needed to evaluate non-ideal flow patterns, model multi-phase reactions, and design reactors that perform optimally under varying thermal and physical constraints. What you'll learn: - Analyze complex reaction kinetics and establish accurate rate laws for multiple reaction networks. - Evaluate non-ideal reactor behavior using Residence Time Distribution (RTD) data and diagnostic models. - Model heterogeneous catalytic reactions including external transport limitations and internal pore diffusion. - Design multi-phase reactors by applying mass transfer principles to gas-liquid and gas-solid systems. - Assess thermal stability and runaway risks in non-isothermal reactor operations. - Apply modern numerical estimation techniques to solve complex reactor design equations. This course begins with essential terminology, basic thermodynamic constraints, and foundational kinetic definitions before moving into advanced non-ideal modeling and multi-phase engineering. Through structured explanations, practical scenarios, and step-by-step mathematical derivations, you will build a robust framework for solving realistic engineering problems. This course is designed for undergraduate or graduate engineering students, process engineers, and industrial chemists seeking a solid foundational understanding of advanced reactor design. No prior advanced reaction engineering experience is required, though a basic background in general chemistry and introductory calculus is helpful. Start reading today to elevate your understanding of chemical reactor design and industrial process optimization.