Applied Fluid Mechanics: Principles and Problem Solving

Understanding how fluids behave under various conditions is essential for chemical, mechanical, and civil engineering. This course provides the robust theoretical foundation you need to tackle real-world process design challenges. By the end of this course, you will be able to confidently apply the principles of fluid statics and dynamics to calculate forces, predict flow rates, and analyze energy requirements for moving fluids through complex piping networks and machinery. What you'll learn: * Understand the fundamental properties of fluids, including viscosity, surface tension, and compressibility. * Apply the principles of fluid statics to calculate hydrostatic forces and pressure distribution in submerged objects and tanks. * Master the continuity, momentum, and energy equations (Bernoulli's equation) for analyzing steady and unsteady flow. * Analyze laminar and turbulent flow regimes, calculating frictional losses and pressure drop in pipes using engineering correlations. * Practice using dimensional analysis and similarity principles to scale up experimental data and predict system performance. * Configure basic pumping systems and analyze the performance curves of common fluid machinery. We begin by defining fluid properties and exploring fluid statics. We then transition into fluid dynamics, covering conservation laws and their application to internal and external flows, concluding with practical analysis of pipe networks and pumps. This course is designed for aspiring engineers, science students, and technical professionals who need a strong, foundational understanding of fluid mechanics. No prior knowledge of the subject is required. Start building your essential engineering toolkit today.