Simflowny – Results
The conceptual architecture of Simflowny has been tested thoroughly to validate the idea that the formal representations it defines are sufficiently flexible to accommodate the standard laws in physics.
This validation has been reflected in the creation of a number of models (table I), problems, and discretization schemas (table II). Some problems provided with the platform are:
Table I: Physical models provided with the example database
| Model | Application |
|---|---|
| Wave equation | Test |
| Advection equation | Test |
| Burguers equation | Test |
| Euler equations | Fluid dynamics |
| Navier-Stokes equations | Fluid dynamics |
| Heat transfer (diffusion) equation | Thermal properties of matter |
| Maxwell equations | Electromagnetism |
| Magnetohydrodynamics | Astrophysics |
Table II: Discretization schemas provided with the examples database Schema component Application
| Schema component | Application |
|---|---|
| Method of lines | general framework |
| Forward Euler | time discretization scheme |
| Runge-Kutta of 3rd and 4th order (RK3 and RK4) |
time discretization scheme |
| Adams-Bashforth | time discretization scheme |
| Godunov | spatial reconstructions |
| MUSCL | spatial reconstructions |
| Parabolic Piece-Wise | spatial reconstructions |
| WENO (3rd and 5th orders) | spatial reconstructions |
| Lax-Friedrichs | Riemann solver |
| Local Lax-Friedrichs | Riemann solver |
| Finite differences Oscher-Chakravarthy (FDOC) |
Riemann solver |
| RK3+WENO+LLF | stable global scheme |
| RK3+FDOC | stable global scheme |
