Transport Processes: Principles of Fluid, Heat, and Mass Transfer

Understanding how mass, energy, and momentum move through physical systems is the cornerstone of modern engineering. This course provides a clear, step-by-step path to grasping transport phenomena without getting lost in overly dense mathematical jargon. You will learn to formulate and solve the governing equations that describe fluid dynamics, thermal energy transport, and molecular diffusion. By studying these transport mechanisms side-by-side, you will build a unified framework for analyzing complex engineering systems, from industrial piping to environmental filtration. What you'll learn: Understand the foundational analogies between momentum, heat, and mass transfer; Apply shell balance methods to derive governing differential equations for various geometries; Analyze boundary layer transport and convective transfer coefficients in fluid flows; Solve steady-state and transient transport problems using analytical techniques; Explore modern computational formulations and numerical approximation concepts for transport equations; Evaluate transport processes in environmental and sustainable engineering applications. We begin with essential definitions and a review of basic fluid properties before moving systematically through momentum, thermal energy, and mass transport. You will progress from simple one-dimensional systems to coupled transport phenomena and modern computational setups. Designed for engineering students, technical professionals, and beginners looking for a structured, text-based introduction to transport phenomena. A basic background in calculus is helpful, but no prior transport experience is required. Start reading today to master the core principles of transport engineering.