Physics-Informed Neural Networks for Solving Blood Flows

Yao-Chung Chang, Yu-Shan Lin, Jeu-Jiun Hu
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Abstract

The Physics-informed Neural Networks Deep Learning (PINN) framework has been introduced with the primary objective of advancing the field of blood flow simulations. PINN Deep Learning involves data-driven training for flow prediction and can incorporate the understanding of physical laws described by partial differential equations (PDEs). This paper employs the PINN Method for simulating blood flows. Multiple test cases will be computed and compared with other numerical and experimental results to validate the approach. The results demonstrate that the PINN method functions as expected, and validation against experimental and other researchers' results ensures the generation of meaningful output data and the prudent selection of parameters.
用于解决血流问题的物理信息神经网络
引入物理信息神经网络深度学习(PINN)框架的主要目的是推动血流模拟领域的发展。PINN 深度学习涉及数据驱动的流动预测训练,并能结合对偏微分方程(PDE)描述的物理规律的理解。本文采用 PINN 方法模拟血流。将计算多个测试案例,并与其他数值和实验结果进行比较,以验证该方法。结果表明,PINN 方法的功能符合预期,与实验结果和其他研究人员的结果进行验证,可确保生成有意义的输出数据并谨慎选择参数。
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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