Maciej Sikora, Albert Oliver-Serra, Leszek Siwik, Natalia Leszczyńska, Tomasz Maciej Ciesielski, Eirik Valseth, Jacek Leszczyński, Anna Paszyńska, Maciej Paszyński
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引用次数: 0
摘要
本文提出了两种计算方法,用于模拟平流扩散方程描述的污染传播。第一种方法采用图语法来描述使用三维有限元法的无网格求解器进行模拟时所使用的计算网格的生成过程。图变换规则表达了三维 Rivara 最长边细化算法。该求解器用于一个示例应用:对燃煤发电厂产生的污染及其在斯匹次卑尔根群岛首府朗伊尔宾市的传播进行三维模拟。第二个计算代码基于物理信息神经网络方法。它用于计算朗伊尔城所在山谷的污染消散情况。我们讨论了使用 Google Colab 实现的 PINN 方法的实例化和执行。我们讨论了 PINN 实现的优点和局限性。
Graph grammars and Physics Informed Neural Networks for simulating of pollution propagation on Spitzbergen
In this paper, we present two computational methods for performing
simulations of pollution propagation described by advection-diffusion
equations. The first method employs graph grammars to describe the generation
process of the computational mesh used in simulations with the meshless solver
of the three-dimensional finite element method. The graph transformation rules
express the three-dimensional Rivara longest-edge refinement algorithm. This
solver is used for an exemplary application: performing three-dimensional
simulations of pollution generation by the coal-burning power plant and its
propagation in the city of Longyearbyen, the capital of Spitsbergen. The second
computational code is based on the Physics Informed Neural Networks method. It
is used to calculate the dissipation of the pollution along the valley in which
the city of Longyearbyen is located. We discuss the instantiation and execution
of the PINN method using Google Colab implementation. We discuss the benefits
and limitations of the PINN implementation.