codes:arcos
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| codes:arcos [2014/07/07 12:38] – margreet | codes:arcos [2025/04/17 13:57] (current) – external edit 127.0.0.1 | ||
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| * Parallel computations in multi-core machines. | * Parallel computations in multi-core machines. | ||
| * Automatic code generator for plasmo-chemical models. | * Automatic code generator for plasmo-chemical models. | ||
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| + | ==== Download and browse ==== | ||
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| + | You can download the ARCoS library here: | ||
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| + | * [[https:// | ||
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| + | * [[http:// | ||
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| + | If you want to use the FISHPACK library, please fill the FISHPACK order form. If you just want to take a look at parts of the source code, you can Browse the source code. | ||
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| + | We distribute ARCoS under a fair use policy: if you use it for your research, we expect that you cite our work. | ||
| ==== People ==== | ==== People ==== | ||
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| [[http:// | [[http:// | ||
| - | [[http:// | + | [[http:// |
| [[http:// | [[http:// | ||
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| These papers describe the algorithms used in ARCoS or include results obtained with it. | These papers describe the algorithms used in ARCoS or include results obtained with it. | ||
| - | - The refinement algorithm for the Poisson equation: | + | * The refinement algorithm for the Poisson equation: |
| + | * //A nested-grid finite-difference Poisson solver for concentrated source terms//, J. Wackers J. Comp. Appl. Math. **180**, 1 (2005)[[http:// | ||
| - | * A nested-grid finite-difference Poisson solver | + | * A comprehensive description of the discretization and refinement algorithms that are implemented in ARCoS: |
| + | * //An adaptive | ||
| - | - A comprehensive description | + | * // |
| - | * An adaptive grid refinement strategy for the simulation of negative streamers, C. Montijn, W. Hundsdorfer, | ||
| - | * Evolution | + | * We introduce a numerical method to speed up the calculation of the photoionisation term in streamer simulations and\\ apply it to the simulation |
| + | * // | ||
| + | * Part of this paper consisted in the use of ARCoS to test a boundary condition for streamers in 2D: | ||
| + | * // | ||
| - | - We introduce a numerical method to speed up the calculation of the photoionisation term in streamer simulations and apply it to the simulation of negative streamers: | ||
| - | * '' | ||
| - | - Part of this paper consisted in the use of ARCoS to test a boundary condition for streamers in 2D: | + | * ARCoS was used to show the relationship between streamer discharges and Saffman-Taylor fingers: |
| - | * '' | + | * // |
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| + | * We describe the numerical method to simulate streamers in 3D in multi-core machines. This method is then applied to the study of interacting streamers: | ||
| + | * // | ||
| - | - ARCoS was used to show the relationship between streamer discharges and Saffman-Taylor fingers: | ||
| - | * '' | ||
| - | - We describe the numerical method to simulate streamers in 3D in multi-core machines. This method is then applied to the study of interacting streamers: | ||
| - | * '' | ||
codes/arcos.1404736711.txt.gz · Last modified: (external edit)
