Transport Processes Fundamentals

Many engineering challenges involve understanding how energy, mass, and momentum move through systems. This course provides a clear, conceptual foundation for these critical phenomena. By mastering the fundamental laws and equations of transport processes, you will develop the analytical skills to predict and design systems where these transfers occur, from chemical reactors to biological systems. What you'll learn: * Understand the fundamental conservation laws governing momentum, heat, and mass transport. * Apply shell balance techniques to derive velocity, temperature, and concentration profiles in various geometries. * Analyze fluid flow behavior, including viscosity, laminar flow, and pressure drop in ducts. * Explain the mechanisms of heat transfer through conduction, convection, and radiation. * Calculate rates of mass transfer using Fick's law of diffusion and convective mass transfer coefficients. * Practice solving integrated engineering problems that involve coupled transport phenomena. * Explore the conceptual application of computational tools and numerical methods for complex transport scenarios. The course begins with an introduction to the conservation laws, then systematically covers momentum, heat, and mass transport, building from basic definitions to practical problem-solving techniques. Each section includes conceptual explanations and step-by-step derivations. This course is designed for beginners with no prior knowledge of transport processes, making it ideal for students and professionals new to chemical engineering, mechanical engineering, or related scientific fields. Begin your journey to understand the foundational principles that govern the movement of matter and energy in engineering systems.