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