Fluid Mechanics: Viscous Flow and Boundary Layer Analysis

Understanding how real fluids behave under shear and friction is essential for designing efficient hydraulic systems and aerodynamic surfaces. This course moves beyond ideal fluid assumptions to provide a comprehensive, text-based foundation in intermediate fluid mechanics, enabling you to analyze complex flow scenarios involving viscosity and turbulence. What you'll learn: * Master the Navier-Stokes equations and their simplified application to laminar flow problems. * Understand the principles of boundary layer theory, flow separation, and drag calculation on submerged bodies. * Apply dimensional analysis (like the Buckingham Pi theorem) and similitude rules for effective physical and computational modeling. * Analyze flow through pipes and ducts, calculating major and minor losses using the Darcy-Weisbach and Moody diagram methods. * Learn foundational concepts of compressible flow, including the Mach number and basic shock wave phenomena. We begin with the governing equations for viscous flow, transition into boundary layer concepts, and conclude with practical applications in pipe network analysis and an introduction to compressible flow behavior. This course is designed for engineering students, technical professionals, and anyone who has completed a basic fluid statics and dynamics course and is ready to tackle intermediate topics. No prior knowledge of viscous flow is required, just foundational physics and calculus. Start strengthening your fluid mechanics expertise today.