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What Can FlexPDE Do?
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| · | FlexPDE can solve systems of first or second order partial differential equations in one, two or three-dimensional Cartesian geometry, or in axi-symmetric two-dimensional geometry. (Other geometries can be supported by including the proper forms of PDE.)
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| · | The system may be steady-state or time-dependent, or alternatively FlexPDE can solve eigenvalue problems. Steady-state and time-dependent equations can be mixed in a single problem.
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| · | Any number of simultaneous equations can be solved, subject to the limitations of the computer on which FlexPDE is run.
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| · | The equations can be linear or nonlinear. (FlexPDE automatically applies a modified Newton-Raphson iteration process in nonlinear systems.)
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| · | Any number of regions of different material properties may be defined.
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| · | Modeled variables are assumed to be continuous across material interfaces. Jump conditions on derivatives follow from the statement of the PDE system. (CONTACT boundary conditions can handle discontinuous variables.)
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| · | FlexPDE can be extremely easy to use, and this feature recommends it for use in education. But FlexPDE is not a toy. By full use of its power, it can be applied successfully to extremely difficult problems.
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