Third Year Classes Page

I am particularly proud of the class work conducted at Caltech. The classes have been challenging but rewarding.

 

A note about the courses: During the third year we are no-longer required to take courses. However, I decided to take the Advanced Fluid Mechanics courses (AE 201abc) with Dr. Pullin. It is a very rewarding and fun class. Dr. Pullin is an excellent teacher and the course touches all the main areas of Fluid Mechanics left unexplored in the introductory sequence AE101abc.

 
 
Spring 2004
    AE 201c: Hydrodynamic Stability, Dr. Pullin
    Content:  Linear stability analysis and normal mode analysis, Kelvin-Helmholtz instability, Rayleigh-Taylor instability, shear instability, break-up of a liquid jet, thermal instability, Boussinesq approximation, Richtmyer-Meshkov instability, centrifugal instabilities, inviscid instabilities, axisymmetric inviscid disturbances, two-dimensional disturbances, Couette flow, Dean's problem, Gortler's problem, parallel shear flows, squire's theorem, inflection point theorem, Fjortott's theorem, Orr-Sommerfeld equation, plane Poiseuille flow, Blasius boundary layer, transient growth,
    Books: Class notes;
    Drazin, PG and Reid, WH, "Hydrodynamic Stability", Cambridge University Press 2003


Winter 2004
    AE 201b: Advanced Fluid Mechanics, Compressible Flows, Dr. Pullin
    Content: Compressible flow, hodograph method; shock waves, Navier-Stokes shock structure, shock dynamics, shock-jump relations, shock reflection and Mach reflection, Guderley implosion problem, approximate methods for shock dynamics, geometrical shock dynamics, strong shocks, wave propagation on shocks, shock stability, the Riemann problems; molecular gas dynamics, kinetic theory, velocity distribution functions, Maxwellian distribution, molecular fluxes,
    Books: Class notes

     

Fall 2003
AE 201a: Advanced Fluid Mechanics, Incompressible Flows, Dr. Pullin
Content:  Continuum approach and description, kinetic theory of gases, Lagrangian and Eulerian specification of motion, Newtonian fluids, viscosity in gases, Navier-Stokes and Euler equations and boundary conditions, well-posedness of equations, incompressible and Stokes limits, energy equations, dissipation of kinetic energy in incompressible flows; low Mach number expansion of compressible Euler; vorticity, energy associated with vorticity, vorticity dynamics, Helmholtz vorticity laws, vorticity equations, point vortex dynamics, Hill's spherical vortex, viscous vorticity equations; exact solutions of Navier-Stokes equations, Couette and Poiseuille flows, Rayleigh flows, circular Couette flow, Burger's vortex, flows in channels with fluctuating pressure gradients, stagnation point flows, flow with rotation, flow past bodies; potential flow, Stoke's streamfunction, free streamline theory; diffusion and mixing,
Books: Class Notes


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Last updated: May 12, 2006
comments e-mail: mlatini@acm.caltech.edu