Transport Processes in Chemical Engineering

Transport processes—momentum, heat, and mass transfer—are the foundational pillars of chemical engineering, governing everything from industrial reactors to biological systems. Understanding these physical phenomena is crucial for designing and optimizing chemical processes. This text-only course guides you from core definitions to confident problem-solving, teaching you how to set up governing equations, apply boundary conditions, and analyze transport behavior. What you'll learn: - Understand the core principles of momentum transfer, viscosity, and fluid flow behaviors. - Apply shell balances to derive velocity, temperature, and concentration profiles. - Solve steady-state and transient heat conduction and convection problems. - Analyze mass transfer mechanisms, including molecular diffusion and convective mass transport. - Formulate dimensional analysis and scaling arguments to simplify complex engineering systems. - Explore modern transport contexts, such as microfluidics and environmental transport processes. You will start with essential terminology and the physical laws of conservation before moving systematically through fluid dynamics, thermal energy transport, and mass diffusion problems. Each concept is reinforced with detailed written walkthroughs of classic chemical engineering challenges. Designed for engineering students, newly practicing engineers, or science professionals seeking a structured, beginner-friendly introduction to transport phenomena without advanced prerequisites. Begin reading today to build a strong analytical foundation in chemical engineering transport processes.