Chemical Reaction Engineering: Catalysis and Reactor Design

Moving beyond ideal reactor models is essential for designing real-world chemical processes. This comprehensive written guide helps you understand complex reaction behaviors, focusing on how actual reactors deviate from perfect mixing. You will transition from basic stoichiometry to analyzing real reactor performance using residence time distribution (RTD) and solid catalysis. By studying the step-by-step written explanations and practical engineering problems, you will gain the analytical skills needed for professional practice and competitive engineering exams. What you'll learn: Understand the principles of non-ideal flow and residence time distribution in chemical reactors; Analyze catalytic reaction mechanisms and the steps of heterogeneous catalysis; Calculate reactor performance using diagnostic models like the dispersion and tanks-in-series models; Evaluate catalyst deactivation, pore diffusion, and effectiveness factors in solid catalysts; Apply modern sustainable reaction engineering and green chemistry principles to reactor design; Practice solving complex reaction engineering problems step-by-step through clear written scenarios. The course begins with foundational definitions of non-ideal flow before exploring residence time distribution functions. You will then progress through catalytic kinetics, mass transfer limitations, and modern sustainable design considerations. This course is designed for chemical engineering students, exam aspirants, and professionals seeking a solid grounding in reactor design. No advanced prerequisites are required, as we build up from foundational chemistry and mathematical concepts. Start reading today to master the core principles of modern chemical reaction engineering.