Computational Physics Summer School
Laboratory
Introduction to the
Partial Differential Equation Toolbox
Description
The Partial Differential Equation Toolbox extends the
MATLAB Technical
Computing Environment for the study and solution of PDEs in two space
dimensions (2-D) and time. The PDE Toolbox provides a set of command line
functions and an intuitive graphical user interface for preprocessing, solving
and postprocessing generic 2-D PDEs using the Finite Element Method (FEM). The
toolbox also provides automatic and adaptive meshing capabilities, and a suite
of eight application modes for common PDE application areas such as heat
transfer, structural mechanics, electrostatics, magnetostatics, and diffusion.
These application areas are common in the fields of engineering and physics.
Check out additional information provided by the authors of the PDE Toolbox,
COMSOL.
Demonstrations
The following demonstrations may be run by typing, e.g. pdedemo1 at
the MATLAB prompt.
pdedemo1 - Exact solution of Poisson's equation on unit disk.
pdedemo2 - Solve Helmholtz's equation and study the reflected waves.
pdedemo3 - Solve a minimal surface problem.
pdedemo4 - Solve PDE problem using subdomain decomposition.
pdedemo5 - Solve a parabolic PDE (the heat equation).
pdedemo6 - Solve a hyperbolic PDE (the wave equation).
pdedemo7 - Adaptive solution with point source.
pdedemo8 - Solve Poisson's equation on rectangular grid.
At the MATLAB prompt type pdetool to bring up the PDE toolbox
graphical user interface. Select "Help" from the Help Menu for an
introduction to its use.
Click the "PDE" button to specify the PDE to be solved. Click the "=" button
to solve the PDE.
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Last Update 3 January 1996