Chemical Reaction Engineering: Reactor Design, Selectivity, and Separation

In chemical engineering, designing a system that maximizes your desired product while minimizing waste is a core challenge. This text-based course guides you through the fundamental principles of chemical reaction engineering, focusing on how to balance selectivity and conversion. You will learn to analyze complex reaction networks and make strategic decisions to optimize reactor performance. By working through this comprehensive written guide, you will transition from understanding basic reaction rates to designing integrated chemical systems. You will learn how to select the right reactor configurations, optimize concentration profiles, and couple reaction processes with separation units for maximum efficiency. What you'll learn: - Understand foundational chemical kinetics, reaction rates, and basic reactor design equations - Analyze the trade-offs between product selectivity and reactant conversion in complex systems - Determine optimal reactant concentration profiles to maximize the rate of desired reactions - Integrate reactors with separation systems, including recycle loops, to improve overall yield - Apply modern mass balance principles and thermodynamic constraints to reaction engineering - Practice troubleshooting yield issues using structured, text-based engineering scenarios This course begins with essential terminology, kinetic definitions, and foundational mass balances before moving into advanced optimization strategies and separation integration. You will study clear, written explanations and step-by-step mathematical formulations that prepare you for real-world engineering challenges. This course is designed for beginners in chemical reaction engineering, chemistry students, and process engineers looking to solidifying their foundational knowledge. No advanced background in reactor design is required, though a basic understanding of general chemistry and calculus is helpful. Start reading today to master the core principles of chemical reactor optimization.