基于神经网络的固体材料本构模型

R. Alhayki, E. Muttio-Zavala, W. Dettmer, D. Peric
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引用次数: 0

摘要

本文提出了一种新的基于神经网络的方法来再现固体材料的复杂非线性本构关系,包括弹性行为、塑性变形和损伤机制。提出了一种基于历史的策略,使用人工神经网络来训练路径依赖的非弹性行为。网络的发展是建立在一个普遍的内部形式主义基础上的。结果表明,所提出的方法可以准确地表示单轴应力状态下的von Mises弹塑性材料模型。将该策略应用于有硬化和无硬化弹塑性以及弹塑性损伤的数值生成的训练和验证数据序列。结果与已建立的数学模型进行了比较,显示出在一维中准确描述复杂非线性固体材料行为的潜力
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Neural Network-Based Constitutive Model for Solid Materials
This proposes novel neural network-based approaches to reproduce the complex nonlin-ear constitutive relations of solid materials including elastic behavior, plastic deformation and damage mechanism. A history-based strategy has been suggested using an artificial neural network for training path-dependent inelastic behavior. The network development is based on a general internal formalism. of selected It is shown that the proposed methodology can represent exactly the von Mises elastoplastic material model in uni-axial stress state. The strategy was applied to sequences of training and validation data which were generated numerically for elastoplasticity with and without hardening as well as for elastoplastic damage. The results have been compared against established mathematical models and shown a potential of describing complex non-linear solid material behavior accurately in one-dimensional
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