Difference between revisions of "GetDP"

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(Featured numerical methods)
(GetDP models)
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* [[Domain decomposition methods for waves]]
 
* [[Domain decomposition methods for waves]]
 
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=== Featured tutorials ===
 
 
=== Academic cases ===
 
 
 
These benchmarks are mainly for students and researchers who plan to propose new benchmarks using GetDP.  The codes are as simple as possible in order to make learning the syntax easier.
 
 
 
{| class="wikitable"
 
!Numerical schemes
 
!Academic benchmarks
 
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* [[Numerical schemes: Laplace's equation|Laplace's equation]]
 
* [[Numerical schemes: Laplace's equation|Laplace's equation]]
 
* [[Numerical schemes: Heat equation|Heat equation]]
 
* [[Numerical schemes: Heat equation|Heat equation]]
 
* [[Electrostatics]]
 
* [[Electrostatics]]
 
* [[Numerical_schemes:_Wave_propagation|Wave propagation]]
 
* [[Numerical_schemes:_Wave_propagation|Wave propagation]]
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* [[Laplace equation with Neumann boundary condition]]
 
* [[Laplace equation with Neumann boundary condition]]
 
* [[Laplace equation with Dirichlet boundary condition]]
 
* [[Laplace equation with Dirichlet boundary condition]]
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* [[Coupled problems]]
 
* [[Coupled problems]]
 
* Eigenvalues problems
 
* Eigenvalues problems
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Revision as of 09:57, 17 April 2015

GetDP is an open source finite element solver using mixed elements to discretize de Rham-type complexes in one, two and three dimensions. GetDP is developed by the ACE group from the Montefiore Institute at the University of Liège, and is released under the GNU GPL.

Getting started

ONELAB allows to use GetDP as a black-box solver: you don't need to know anything about finite elements or de Rham complexes in order to run your first simulations:

  1. Download and uncompress the ONELAB bundle for Windows64, Windows32, Linux64, Linux32 or MacOSX. (If you prefer you can of course also download and install Gmsh and GetDP separately.)
  2. Double-click on the Gmsh executable (gmsh.exe
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    on Windows).
  3. Load one of the GetDP models (.pro file) through the File/Open menu, e.g. inductor.pro in the models/inductor directory for the simple inductor/core example.
  4. Click on Run.
  5. ... that's it!

Note that on Windows, depending on your computer security settings, you might have to explicitly allow the GetDP executable to be launched by Gmsh. Manually launch GetDP once by double-clicking on getdp.exe to allow this.

GetDP models

Featured physical models

Acoustics Electromagnetism Heat transfer Multi-physics

Featured numerical methods

All models

All GetDP models

How does it work?

GetDP input files (.pro files) can be instrumented to share parameters with the ONELAB server, through the same syntax as the one used in Gmsh.