Introductory course to the theory of fluid mechanics. The course starts presenting basic kinematic concepts. The Reynolds transport theorem will then be used to deduce the conservation, or Navier-Stokes, equations (continuity, momentum and energy), which will be applied in integral form to the analysis of simple problems. Finally, there will be an introduction to dimensional analysis, including the Pi theorem and the concept of physical similarity, with simple applications that motivate its usefulness.
Introduction to Fluid Mechanics
Fluids vs. solids
Continuous medium approximation
Fluid properties
Local thermodynamic equilibrium
Fluid Kinematics
Description of fluid motion
streamlines
trace lines
Trajectory and path
Fluid lines, fluid surfaces, and fluid volumes
Reynolds Transport Theorem
Law of Conservation of Mass
Concept and formulation
Practical applications
Law of Conservation of Momentum
Basic formulation
External forces acting on a fluid volume
Surface forces
Body forces
Practical applications
Energy Conservation Law
Energy conservation principle
Work of external forces acting on a fluid volume
Practical applications
Dimensional analysis
Basic concepts and fundamentals
The Pi or Vaschy-Buckingham theorem
Physical similarity
Applications to fluid mechanics