Modeling almost incompressible fluid flow with CNN

F. Puffer, R. Tetzlaff, D. Wolf
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引用次数: 4

Abstract

A novel method for transferring the Navier-Stokes equations for two-dimensional almost incompressible, viscous flow to cellular neural network (CNN) is discussed. The problem has been treated previously by Kozek et al. (1994, 1995), where the CNN layer that represents the pressure had to perform on a much faster time-scale than the layers representing the velocity components. This is a drawback, especially when hardware realizations are considered. The method presented in this contribution avoids the use of a double time-scale CNN and requires fewer connections between the cells. The treatment of boundary conditions is discussed and the accuracy of the results is determined for two known analytical solutions.
用CNN模拟几乎不可压缩的流体流动
讨论了一种将二维几乎不可压缩粘性流的Navier-Stokes方程转化为细胞神经网络的新方法。Kozek等人(1994,1995)先前已经处理过这个问题,其中表示压力的CNN层必须在比表示速度分量的层更快的时间尺度上执行。这是一个缺点,特别是在考虑硬件实现时。本文提出的方法避免了双时间尺度CNN的使用,并且需要更少的细胞之间的连接。讨论了边界条件的处理,并确定了两个已知解析解的结果的准确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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