FIP-GNN: Graph neural networks for scalable prediction of grain-level fatigue indicator parameters

IF 5.3 2区 材料科学 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY Scripta Materialia Pub Date : 2024-10-15 DOI:10.1016/j.scriptamat.2024.116407
Gyu-Jang Sim , Myoung-Gyu Lee , Marat I. Latypov
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Abstract

High-cycle fatigue is a critical performance metric of structural alloys for many applications. The high cost, time, and labor involved in experimental fatigue testing call for efficient and accurate computer models of fatigue life. We present FIP-GNN – a graph neural network for polycrystals that (i) predicts fatigue indicator parameters as grain-level inelastic responses to cyclic loading quantifying the local driving force for crack initiation and (ii) generalizes these predictions to large microstructure volume elements with grain populations well beyond those used in training. These advances can make significant contributions to statistically rigorous and computationally efficient modeling of high-cycle fatigue – a long-standing challenge in the field.

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FIP-GNN:用于可扩展晶粒级疲劳指标参数预测的图神经网络
在许多应用中,高循环疲劳是结构合金的一个关键性能指标。实验疲劳测试的成本、时间和人力都很高,因此需要高效、准确的疲劳寿命计算机模型。我们提出了 FIP-GNN--一种用于多晶体的图神经网络,它(i)将疲劳指标参数预测为对循环加载的晶粒级非弹性响应,量化了裂纹萌发的局部驱动力;(ii)将这些预测推广到大微结构体积元素,其晶粒群远远超出了训练中使用的晶粒群。这些进展可为高循环疲劳的严谨统计和高效计算建模做出重大贡献,而这正是该领域长期面临的挑战。
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来源期刊
Scripta Materialia
Scripta Materialia 工程技术-材料科学:综合
CiteScore
11.40
自引率
5.00%
发文量
581
审稿时长
34 days
期刊介绍: Scripta Materialia is a LETTERS journal of Acta Materialia, providing a forum for the rapid publication of short communications on the relationship between the structure and the properties of inorganic materials. The emphasis is on originality rather than incremental research. Short reports on the development of materials with novel or substantially improved properties are also welcomed. Emphasis is on either the functional or mechanical behavior of metals, ceramics and semiconductors at all length scales.
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