Second 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 second year we are required to take
the advanced numerical methods for PDEs course (ACM 210ab) and the
advanced
PDE course (ACM 201ab). I also took the first quarter of the
continuum
mechanics course (AE 160a) |
Spring 2003
ACM 201b: Advanced Partial
Differential
Equations,
Dr. Bruno
Content: Heat
equation, maximum principle, solutions in bounded domains; waves,
one-dimensional wave equation, D'Alambert formula, domain of dependence
and of influence; wave equation in N dimensions, Darboux equation,
Hadamard's method of descent, Duhamel principle; water waves,
linearization, dispersion relation, phase and group velocities,
shallow-water equations, gas dynamics, hyperbolic systems, Riemann
invariants, shock waves, existence of solutions to hyperbolic systems;
integral equations, single- and double-layer potentials, Fredholm's
theorem,
Books: John, F, "Partial Differential
Equations", Springer-Verlag 1982
|
Winter 2003
ACM 201a: Advanced Partial
Differential
Equations,
Dr. Bruno
Content: Existence and
uniqueness for ordinary Ordinary Differential Equations (ODEs);
first-order Partial Differential Equations (PDEs), quasi-linear
equations, characteristics, shocks, shock condtiions, Burger's
equation, nonlinear equations, geometrical optics; Cauchy-Kowalevsky;
secon-order equations, hyperbolic, parabolic, and elliptic; Laplace's
equation, Green's formulae, weak solutions, maximum principle,
existence of solutions of Dirichlet problem; Hilbert space methods,
general Sobolev spaces, distributions, method of partition of unity;
eigenvalue problems.
Books: John, F, "Partial
Differential Equations", Spring-Verlag 1982
ACM 210b: Advanced Numerical
PDEs, Dr. Hou
Content:
Multiple-scales problems, homogenization theory, finite-element
approximation, Cea's lemma; two-phase flow problems, homogenization for
time-dependent problems, semi-linear hyperbolic systems, particle
methods, convergence analysis for particle methods, wavelet-based
homogenization, variational multi-scale method, incompressible Euler
equations,
Books: Class Notes
|
Fall 2002
ACM 210a: Advanced
Numerical PDEs, Dr. Hou
Content: Stability for linear hyperbolic
systems, local truncation error, dynamic and numerical stability, phase
error, dissipation schemes; nonlinear hyperbolic PDEs, entropy
condition, Godunov's scheme, Riemann problems, Lax-Wendroff theorem;
high-resolution schemes, flux limiters, Roe's scheme, semi-discrete ENO
methods, Runge-Kutta total-variation-diminishing schemes; level sets
methods,
Books: Class Notes
AE 160a: Continuum Mechanics
of Solid and Liquids, Dr. Ortiz
Content: Kinematic of deformable bodies,
Lagrangian picture (solids), analysis of local deformation,
orientation, finite spatial rotations, three-dimensional rotations,
vector and matrix representations, Euler's theorem, polar
decomposition, spectral decomposition, exponential representation of
rotations, algebra of quaternions, compatibility equations,
discontinuous deformations, dislocations, integrability of systems of
PDEs, Christoffel symbols, properties of the Riemann-Christoffel
tensor, linearized kinematics, Eulerian picture (fluids).
Books: Class Notes
|
Last updated: May 14, 2006
comments e-mail: mlatini@acm.caltech.edu
|