A Novel Physics Informed Deep Learning Method for Simulation-Based Modelling

Hasan Karali, Umut M. Demirezen, M. Yukselen, G. Inalhan
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引用次数: 4

Abstract

In this paper, we present a brief review of the state of the art physics informed deep learning methodology and examine its applicability, limits, advantages, and disadvantages via several applications. The main advantage of this method is that it can predict the solution of the partial differential equations by using only boundary and initial conditions without the need for any training data or pre-process phase. Using physics informed neural network algorithms, it is possible to solve partial differential equations in many different problems encountered in engineering studies with a low cost and time instead of traditional numerical methodologies. A direct comparison between the initial results of the current model, analytical solutions, and computational fluid dynamics methods shows very good agreement. The proposed methodology provides a crucial basis for solution of more advance partial differential equation systems and offers a new analysis and mathematical modelling tool for aerospace applications.
一种新的基于物理的基于仿真建模的深度学习方法
在本文中,我们简要回顾了最新的物理深度学习方法,并通过几个应用检查了它的适用性、局限性、优点和缺点。该方法的主要优点是不需要任何训练数据和预处理阶段,只需要边界条件和初始条件就可以预测偏微分方程的解。利用基于物理的神经网络算法,可以用较低的成本和时间来解决工程研究中遇到的许多不同问题中的偏微分方程,而不是传统的数值方法。将当前模型、解析解和计算流体动力学方法的初始结果直接比较,结果显示出非常好的一致性。所提出的方法为求解更高级的偏微分方程组提供了重要的基础,并为航空航天应用提供了一种新的分析和数学建模工具。
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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