Foundational Transport Processes for Chemical Engineering

Understanding how momentum, heat, and mass move through systems is essential for any chemical engineer designing or optimizing industrial operations. This course provides a solid, mathematical foundation in transport phenomena, enabling you to derive governing equations, apply fundamental conservation laws, and solve practical problems in fluid flow, heat exchange, and separation processes. What you'll learn: * Understand the conservation laws and fundamental principles governing momentum, heat, and mass transport. * Apply shell balances to derive the differential equations that model flow profiles and temperature distributions. * Practice solving practical problems involving laminar flow, conductive heat transfer, and molecular diffusion. * Analyze complex systems using key dimensionless numbers like Reynolds, Nusselt, and Sherwood numbers. * Configure and analyze basic heat exchangers and mass separation units using foundational transport equations. The course begins with core terminology and conservation laws, progresses through the detailed analysis of momentum transfer (fluid dynamics), then covers heat transfer (conduction and convection), and concludes with mass transfer (diffusion and convection). This material is designed for beginners, students, or professionals seeking a rigorous introduction to transport processes; no prior knowledge of advanced fluid dynamics is required. Start building your foundational expertise in chemical engineering transport phenomena today.