Applied Transport Processes for Chemical Engineers

Understanding how momentum, energy, and material move through systems is the bedrock of chemical engineering. Without this knowledge, complex system design and process analysis are impossible. By the end of this course, you will possess a strong conceptual and mathematical foundation in transport phenomena. You will be prepared to analyze common industrial processes, calculate flow rates, predict temperature distributions, and model mass separation processes using fundamental principles. What you'll learn: * Understand the governing equations for fluid flow (Navier-Stokes) and apply them to simple geometries. * Master the principles of heat conduction, convection, and radiation, and calculate steady-state and transient temperature profiles. * Apply Fick's laws of diffusion to model mass transfer in binary mixtures and across phase boundaries. * Practice dimensional analysis and scaling to simplify complex transport problems and interpret experimental data. * Learn to integrate the three modes of transport (momentum, heat, mass) to solve coupled engineering scenarios. The course begins with defining key physical properties and conservation laws before delving into detailed analysis of momentum, heat, and mass transfer individually. The final sections focus on combining these concepts for comprehensive system analysis and problem-solving. This course is designed for absolute beginners and students seeking a rigorous introduction to chemical engineering transport processes. No prior experience in fluid dynamics or thermodynamics is required, only basic calculus knowledge. Start building your essential engineering foundation today.