Module #1 Introduction to Fluid Dynamics Overview of fluid dynamics, importance in engineering applications, and brief history.
Module #2 Fluid Properties Physical properties of fluids, such as density, viscosity, and surface tension.
Module #3 Fluid Statics Pressure, hydrostatic forces, and buoyancy in static fluids.
Module #4 Fluid Kinematics Description of fluid motion, including velocity, acceleration, and streamlines.
Module #5 Fluid Dynamics Equations Introduction to the Navier-Stokes equations and mass conservation equation.
Module #6 Laminar Flow Characteristics of laminar flow, including velocity profiles and flow regimes.
Module #7 Turbulent Flow Characteristics of turbulent flow, including turbulence models and eddy viscosity.
Module #8 Pipe Flow Fully developed pipe flow, including friction factors and pipe roughness.
Module #9 Boundary Layers Development of boundary layers, including laminar and turbulent boundary layers.
Module #10 Drag and Lift Forces on objects in fluid flow, including drag and lift coefficients.
Module #11 Open Channel Flow Flow in open channels, including uniform flow and non-uniform flow.
Module #12 Pumps and Turbines Fundamentals of pumps and turbines, including performance curves and efficiency.
Module #13 Fluid Measurement Measurement techniques for fluid flow, including pressure, velocity, and flow rate.
Module #14 Computational Fluid Dynamics (CFD) Introduction to CFD, including numerical methods and simulation techniques.
Module #15 Aerodynamics Fluid dynamics in aerospace engineering, including airfoil design and wing performance.
Module #16 Hydrodynamics Fluid dynamics in ocean and coastal engineering, including wave dynamics and ship hydrodynamics.
Module #17 Microfluidics Fluid dynamics at the micro scale, including lab-on-a-chip devices and microchannel flows.
Module #18 Biofluid Mechanics Fluid dynamics in biological systems, including blood flow and respiratory flow.
Module #19 Engineering Applications of Fluid Dynamics Case studies of fluid dynamics in engineering applications, including HVAC and chemical processing.
Module #20 Fluid Dynamics in Renewable Energy Fluid dynamics in wind, hydro, and tidal energy systems.
Module #21 Fluid Dynamics in Environmental Systems Fluid dynamics in environmental systems, including water and air pollution.
Module #22 Fluid Dynamics in Aerospace Engineering Advanced topics in aerospace engineering, including hypersonic flow and compressible flow.
Module #23 Fluid Dynamics in Chemical Engineering Fluid dynamics in chemical engineering, including mixing and reactor design.
Module #24 Fluid Dynamics in Civil Engineering Fluid dynamics in civil engineering, including water resources and coastal engineering.
Module #25 Fluid Dynamics in Mechanical Engineering Fluid dynamics in mechanical engineering, including heat transfer and thermal systems.
Module #26 Experimental Methods in Fluid Dynamics Experimental techniques for measuring fluid flow, including particle image velocimetry and laser Doppler anemometry.
Module #27 Numerical Methods in Fluid Dynamics Numerical methods for solving fluid dynamics problems, including finite element and finite difference methods.
Module #28 Uncertainty and Error Analysis Uncertainty and error analysis in fluid dynamics, including sensitivity analysis and Monte Carlo simulations.
Module #29 Design and Optimization in Fluid Dynamics Design and optimization techniques for fluid dynamics systems, including CFD-optimization and multi-objective optimization.
Module #30 Course Wrap-Up & Conclusion Planning next steps in Fluid Dynamics in Engineering Applications career
