Data-driven material modeling based on the Constitutive Relation Error.

IF 2 Q3 MECHANICS Advanced Modeling and Simulation in Engineering Sciences Pub Date : 2024-01-01 Epub Date: 2024-12-18 DOI:10.1186/s40323-024-00279-x
Pierre Ladevèze, Ludovic Chamoin
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Abstract

Prior to any numerical development, the paper objective is to answer first to a fundamental question: what is the mathematical form of the most general data-driven constitutive model for stable materials, taking maximum account of knowledge from physics and materials science? Here we restrict ourselves to elasto-(visco-)plastic materials under the small displacement assumption. The experimental data consists of full-field measurements from a family of tested mechanical structures. In this framework, a general data-driven approach is proposed to learn the constitutive model (in terms of thermodynamic potentials) from data. A key element that defines the proposed data-driven approach is a tool: the Constitutive Relation Error (CRE); the data-driven model is then the minimizer of the CRE. A notable aspect of this procedure is that it leads to quasi-explicit formulations of the optimal constitutive model. Eventually, a modified Constitutive Relation Error is introduced to take measurement noise into account.

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基于本构关系误差的数据驱动材料建模。
在任何数值发展之前,本文的目标是首先回答一个基本问题:考虑到物理学和材料科学的知识,最一般的数据驱动的稳定材料本构模型的数学形式是什么?在这里,我们将自己限制在小位移假设下的弹(粘)塑性材料。实验数据由一系列被测机械结构的全场测量数据组成。在此框架下,提出了一种通用的数据驱动方法来从数据中学习本构模型(根据热力学势)。定义数据驱动方法的关键要素是一个工具:本构关系误差(CRE);数据驱动模型是CRE的最小化器。这个过程的一个值得注意的方面是,它导致准显式的最优本构模型的公式。最后,引入了一个修正的本构关系误差来考虑测量噪声。
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来源期刊
Advanced Modeling and Simulation in Engineering Sciences
Advanced Modeling and Simulation in Engineering Sciences Engineering-Engineering (miscellaneous)
CiteScore
6.80
自引率
0.00%
发文量
22
审稿时长
30 weeks
期刊介绍: The research topics addressed by Advanced Modeling and Simulation in Engineering Sciences (AMSES) cover the vast domain of the advanced modeling and simulation of materials, processes and structures governed by the laws of mechanics. The emphasis is on advanced and innovative modeling approaches and numerical strategies. The main objective is to describe the actual physics of large mechanical systems with complicated geometries as accurately as possible using complex, highly nonlinear and coupled multiphysics and multiscale models, and then to carry out simulations with these complex models as rapidly as possible. In other words, this research revolves around efficient numerical modeling along with model verification and validation. Therefore, the corresponding papers deal with advanced modeling and simulation, efficient optimization, inverse analysis, data-driven computation and simulation-based control. These challenging issues require multidisciplinary efforts – particularly in modeling, numerical analysis and computer science – which are treated in this journal.
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