Goals

The course presents the fundamental concepts and tools for studying and modeling fluid mechanics. The core of the course is the derivation of the fundamental laws regulating the dynamics and energetics of fluid systems and their application to classical engineering problems. These includes the analysis of flow within a pipe or around a bluff body, the determination of the force exerted by a fluid on a solid object, the energy transfer by forced and natural convection, the transport of pollutant within a turbulent flow.

Programme

  1. Kinematic properties and fundamental laws
  2. Newtonian viscous fluid flow
  3. Dimensional analysis - Reynolds number
  4. Regimes and flow structures as a function of the Reynolds number
  5. Turbulent flow
  6. Energy, thermodynamics and compressible flow
  7. Heat transfer
  8. Vorticity
  9. Mixing of fluids

Sustainable development

Level 1: Activity contextualised through environmentally sustainable development and social responsibility and/or supported by examples, exercises, applications.

DD&RS level 1

Activity contextualised through environmentally sustainable development and social responsibility and/or supported by examples, exercises, applications.

Assessment method

Knowledge 50%, Know-how 50%; Knowledge = 100% Final written exam; Know-how = 100% Laboratory classes report; Second session for the exam.

Bibliography

  • Anderson Jr. J.D., Fundamentals of aerodynamics, McGraw-Hill Int. Edts, 1991
  • Batchelor G.K., An introduction to fluid dynamics, Cambridge University Press, 1967
TC
2h
 
PW
18h
 

Code

24_M_RISE_WWE_S1_AFM

Responsibles

  • Pietro SALIZZONI
  • Ariane EMMANUELLI
  • Marie POULAIN-ZARCOS

Language

English

Keywords

Fluid Particle, mass balance, momentum balance, energy balance, viscosity, Forces, Drag, Lift, head losses, viscous dissipation, turbulence, heat transfer, convection, conduction, passive scalar, fluid mixing.