Foundations of Transport Phenomena: Heat, Mass, and Momentum

Every engineering process, from brewing coffee to industrial chemical synthesis, relies on the movement of momentum, heat, and mass. Understanding these transport phenomena is essential for analyzing and designing efficient physical systems. This text-based course provides a clear, foundational framework for analyzing transport processes. You will learn how to set up balance equations, interpret physical properties, and apply these principles to real-world scenarios in everyday life, laboratories, and industrial settings. What you'll learn: Understand the fundamental driving forces behind momentum, heat, and mass transfer; Formulate conservation equations and boundary conditions for physical systems; Apply dimensional analysis to scale processes from laboratory to industrial production; Analyze real-world scenarios like thermal insulation, fluid flow in pipes, and molecular diffusion; Evaluate modern sustainability and environmental factors in transport process design; Practice solving transport problems using step-by-step written exercises and analytical methods. The course begins with core definitions and physical properties, such as viscosity, thermal conductivity, and diffusivity. You will then progress through structured modules covering fluid dynamics, thermal energy transfer, and mass diffusion, concluding with integrated multi-mode transport problems. This course is designed for beginning engineering students, science undergraduates, or professionals looking to refresh their core physical science concepts. No prior advanced engineering background is required. Start reading today to build a solid foundation in transport phenomena.