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Published byVernon Campbell Modified over 9 years ago
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Fluid dynamical equations (Navier-Stokes equations)
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Fluid dynamical equations (Navier-Stokes equations) Dimensional reduction: from QM to Boltzmann eq. to the fluid equations Continuum hypothesis: d T
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Mass conservation (continuity equation)
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Mass conservation (continuity equation)
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Incompressible fluid
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Conservation of linear momentum (Navier-Stokes equations)
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stress tensor for surface forces commons.wikimedia.org/ wiki/File:Stress_tensor.png The stress tensor is symmetric!
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constitutive equation (relationship between stress and strain) for a Newtonian fluid (with the Stokes assumption)
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Conservation of linear momentum (Navier-Stokes equations)
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Thermodynamic equation: first principle of Thermodynamics
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Till now:
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Equations of state: Perfect gas (e.g., dry air)
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Fluid dynamical eqns. for a perfect gas
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The static solution
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Adiabatic processes
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Static stability of a perfect gas (adiabatic processes)
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Neutral stability of a perfect gas (adiabatic processes)
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For a general, non adiabatic process Relationship between potential temperature and entropy
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Fluid dynamical eqns. for a perfect gas
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The Boussinesq approximation (adiabatic process, ideal fluid)
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The Boussinesq approximation (adiabatic process, ideal fluid)
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The Boussinesq approximation
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(adiabatic process, ideal fluid)
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The Boussinesq approximation (real fluid)
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The Boussinesq approximation (real fluid)
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The Boussinesq approximation (real fluid)
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The Boussinesq approximation (real fluid)
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