Fundamentals of Transport Processes in Chemical Engineering

Transport processes are the foundation of chemical engineering, governing how fluids move, how heat transfers, and how mass moves through different phases. Understanding these physical phenomena is crucial for designing chemical reactors, separation columns, and industrial piping systems. This text-based course guides you from the fundamental molecular mechanisms to macroscopic conservation equations. You will learn to formulate and solve transport problems systematically, building a strong analytical foundation for your engineering career. What you'll learn: - Understand the core principles of momentum, heat, and mass transfer - Apply shell balance methods to derive velocity, temperature, and concentration profiles - Formulate and solve differential equations for steady-state and transient transport systems - Analyze boundary layer flows and transport coefficients in chemical processes - Use dimensional analysis to scale chemical engineering equipment and processes - Solve practical transport problems with step-by-step mathematical derivations The course begins with foundational definitions of viscosity, thermal conductivity, and diffusivity before moving into the derivation of the Navier-Stokes and energy equations. You will then progress through structured written exercises that demonstrate how to apply these equations to real-world chemical engineering scenarios. This course is designed for undergraduate engineering students and self-directed learners who want to build a solid, math-backed understanding of transport phenomena. No prior advanced engineering experience is required, though a basic background in calculus and general chemistry is recommended. Start reading today to master the core calculations of chemical engineering.