Class | Date | Main Topic | References |
1 | Tu 01/31 | Overview: Math 621 in a nutshell | Gobbert (2008) |
2, #0 | Th 02/02 | Prototype problems for elliptic, parabolic, and hyperbolic PDEs | Evans (Ch. 1 and 2) |
3, #1 | Tu 02/07 | The finite difference method for elliptic problems | HPCF-2017-3 |
We 02/08 | 12:00-01:00, ENGR 122: CIRC Software workshop: Basic MATLAB | ||
4 | Th 02/09 | Convergence Theory for FD for elliptic problems | Gobbert (Notes) |
5 | Tu 02/14 | Linear solvers and Matlab programming: CG and preconditioning | Allen (2004) |
6 | Th 02/16 | The method of lines for a parabolic prototype problem using FD | Gobbert (slides) |
7 | Fr 02/17 | Implementation issues and higher dimensional problems; make-up for 02/28/17 | Gobbert (Notes) |
8, #2 | Tu 02/21 | Implementation issues of MOL-FD for non-linear systems of PDEs | Gobbert (slides) |
We 02/22 | 12:00-01:00, ENGR 122: CIRC Software workshop: Basic Programming in MATLAB | ||
9, #3 | Th 02/23 | Numerical methods for stiff systems of ODEs | Shampine & Reichelt |
Tu 02/28 | Class cancelled; make-up was 02/17/17 | ||
10 | Th 03/02 | Library Training Session in room LIBR 259 | |
11 | Tu 03/07 | Derivation of BDFk and NDFk, Newton method, linear solver | Gobbert (slides) |
We 03/08 | 12:00-01:00, ENGR 122: CIRC Software workshop: Intermediate Programming in MATLAB | ||
12 | Th 03/09 | Numerical methods for stiff systems of ODEs | Shampine & Reichelt |
13 | Tu 03/14 | Snow cancellation | |
14, #4 | Th 03/16 | Matlab implementation of NDFk and PCG | |
Tu 03/21 | Spring Break | ||
Th 03/23 | Spring Break | ||
15 | Tu 03/28 | Idea of the finite element method for elliptic problems | Braess (Sec. II.7) |
We 03/29 | 12:00-01:00, ENGR 122: CIRC Software workshop: Advanced Programming in MATLAB | ||
16, #5 | Th 03/30 | Weak derivatives and Sobolev spaces | Braess (Sec. II.1) |
17 | Tu 04/04 | The weak form of elliptic PDEs | Braess (Sec. II.2) |
18, #6 | Th 04/06 | Definition of a FEM solution from the discrete weak form | Braess (Sec. II.8) |
19 | Tu 04/11 | Abstract formulation of weak with bilinear form | Braess (Sec. II.2) |
20, #7 | Th 04/13 | Galerkin orthogonality and Céa's lemma | Braess (Sec. II.4) |
21, #8 | Tu 04/18 | Standard finite elements | Braess (Sec. II.5) |
22 | Th 04/20 | The finite element method for parabolic problems | Gobbert (slides) |
23, #9 | Tu 04/25 | Theory of the finite element method for parabolic problems | Thomée (Ch. 1) |
24 | Th 04/27 | Introduction to hyperbolic partial differential equations | Strikwerda (Sec. 1.1-1.2) |
25 | Tu 05/02 | Finite differences for the scalar transport equation | Strikwerda (Sec. 1.3-1.4) |
26 | Th 05/04 | Theory for FD for the scalar transport equation | Strikwerda (Sec. 1.5-1.6) |
27, #10 | Tu 05/09 | Finite elements for hyperbolic conservation laws | Baumann & Oden |
28 | Th 05/11 | Other numerical methods (finite volume method) for PDEs and review | Huang et al. (2017) |
29 | Tu 05/16 | Review | |
Th 05/18 | 01:00 p.m. Final exam | Note date and time! | |