Finite element quantitative analysis and deep learning qualitative estimation in structural engineering

P. Zhi, Y. Wu
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引用次数: 1

Abstract

. In the past two decades, finite element method (FEM) has been widely used to study mechanics of solids, fluid–structure interactions, and building construction strategies. FEM has been rapidly grown all over the world due to development of computer technology. Computer has much more powerful computing capability than humans. However, structural engineering education not only focused on teaching engineers to use FEM as computation tool, but also concentrated on cultivating engineers’ capability of experience-based qualitative analysis. In addition, artificial intelligence techniques have been rapidly developed in recent years. It is demonstrated that human experience-based capabilities might also be replaced by deep learning methods in various game-playing areas. Thus, this study aims at exploring what role artificial intelligence techniques will play in the futural structural analysis area. In this paper, several finite element analyses are carried out for three representative boundary value problems, such as tightly stretched wires under loading, soil seepage, and plane stress. Corresponding deep neural networks are trained using FEM simulation data to quickly and accurately predict results of relevant problems. It is indicated that to some extent artificial intelligence technique might replace human experience-based qualitative analysis as a surrogate of FEM.
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结构工程中的有限元定量分析与深度学习定性估计
. 在过去的二十年里,有限元方法(FEM)被广泛应用于研究固体力学、流固相互作用和建筑施工策略。由于计算机技术的发展,有限元法在世界范围内得到了迅速的发展。计算机具有比人类强大得多的计算能力。然而,结构工程教育不仅侧重于教授工程师使用有限元作为计算工具,更侧重于培养工程师基于经验的定性分析能力。此外,人工智能技术近年来发展迅速。研究表明,在各种游戏领域,人类基于经验的能力也可能被深度学习方法所取代。因此,本研究旨在探讨人工智能技术在未来结构分析领域将发挥何种作用。本文对荷载作用下拉紧索、土体渗流、平面应力等3种具有代表性的边值问题进行了有限元分析。利用有限元模拟数据训练相应的深度神经网络,快速准确地预测相关问题的结果。指出人工智能技术可以在一定程度上取代基于人的经验的定性分析,作为有限元法的替代品。
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