Class: MW 1330-1445, Ocean Engineering Lab 206
| Jim Kirby Ocean Engineering Laboratory 201 831-2438 kirby@udel.edu |
Fengyan Shi Ocean Engineering Laboratory 205 831-2449 fyshi@coastal.udel.edu |
Required Text: Morton, K. W. and Mayers, D. F., Numerical Solution of Partial Differential Equations, Cambridge University Press.
| Date | Main Topic | Lecture Topic |
| 8/29 | Introduction | Why numerical solutions? |
| 9/5 | The modern computer environment. Serial vs. Parallel codes. Test codes and production codes | |
| 9/10 | Representing continuum models in discrete form. Finite differences, finite volumes, finite elements | |
| 9/12 | Consistency, convergence, stability | |
| 9/17 | Parabolic equations | The heat equation. Solutions on the infinite line. Solutions in finite domains |
| 9/19 | Finite difference approximations (I) Explicit scheme Programming a test case in Matlab | |
| 9/24 | Stability (Fourier and energy methods) | |
| 9/26 | Finite difference approximations (II) Implicit schemes. The Crank-Nicolson method. Solution of tri-diagonal matrix equation. | |
| 10/1 | Example: The one-D vertical boundary layer equation. | |
| 10/3 | Methods for 2-dimensional spatial domains | |
| 10/8 | Periodic boundary conditions | |
| 10/10 | Example: The Parabolic Equation Method for forward-scattering approximations | |
| 10/15 | Application: The PEM model REF/DIF | |
| 10/17 | Hyperbolic equations | One-way and Two-way Wave equations Method of Characteristics |
| 10/22 | Finite difference approaches (I). | |
| 10/24 | Finite difference approaches (II). The shock-capturing problem. | |
| 10/29 | Finite volume methods | |
| 10/31 | Application: Boussinesq model FUNWAVE | |
| 11/5 | Elliptic equations | Properties of equations Finite-differences: structure of resulting matrices Direct and iterative solutions. |
| 11/7 | Example: Normal modes of a vibrating plate. | |
| 11/12 | Finite element method. Weak formulations | |
| 11/14 | Basis functions. Matrix structure. Solution methods | |
| 11/19 | Example: Mild Slope Equation | |
| 11/21 | Application: CGWAVE | |
| 11/26 | The Boundary Element Method (BEM) | |
| 11/28 | Navier Stokes equations | Equation type? Solution strategies. The pressure-Poisson equation |
| 12/3 | The split-step method of Chorin, and alternatives | |
| 12/5 | Application: RIPPLE |
Grading: The semester grade will be based on two elements:
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