Introduction to Transport Processes in Chemical Engineering

Transport processes are the foundation of chemical engineering, dictating how fluids flow, how heat transfers, and how molecules move through space. Understanding these transport phenomena is critical for designing chemical reactors, separation columns, and industrial systems. This text-based course breaks down complex mathematical models into intuitive physical principles, helping you build a strong conceptual and analytical foundation. You will learn to formulate governing equations from first principles and apply them to real-world engineering scenarios. What you'll learn: Understand the foundational molecular mechanisms of momentum, heat, and mass transfer; Apply shell balance methods to derive velocity, temperature, and concentration profiles; Formulate and solve differential equations governing steady-state and transient transport; Analyze dimensionless parameters to scale up chemical processes from laboratory to industrial sizes; Evaluate boundary conditions for complex physical interfaces in engineering systems. The course begins with essential terminology, basic physical concepts, and the molecular origins of transport phenomena. You will then progress systematically through fluid mechanics, thermal conduction and convection, and diffusion processes, applying your knowledge to practical chemical engineering problems. This course is designed for beginners, engineering students, and professionals looking for a clear, structured refresher on transport phenomena, requiring only a basic background in calculus. Start building your core chemical engineering analytical skills today.