关于在 Abaqus 中实施全局-局部迭代耦合和加速技术

IF 3.5 3区 工程技术 Q1 MATHEMATICS, APPLIED
Omar Bettinotti , Stéphane Guinard , Eric Véron , Pierre Gosselet
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引用次数: 0

摘要

本文介绍了利用协同仿真引擎在商业软件 Abaqus 中实施全局-局部迭代耦合的结果和收敛性研究。为减轻建模负担,通常需要采用分层建模和仿真方法。这里特别强调收敛加速和性能优化。这里考虑了两个具有非线性材料行为和几何非线性表述的静力学应用:首先是在牵引力作用下具有弹塑性材料的孔状曲面板,然后是在牵引力作用下连接两块板的预应力螺栓连接。在收敛性能和精度方面,比较了三种不同的收敛加速技术。还提出了一种非精确求解器策略,以提高计算时间性能。研究结果表明,耦合技术具有良好的应用前景,在为复杂结构和组件提供非侵入式多尺度建模能力方面向前迈进了一步。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

On the implementation in Abaqus of the global–local iterative coupling and acceleration techniques

On the implementation in Abaqus of the global–local iterative coupling and acceleration techniques

This paper presents results and convergence study of the Global–Local Iterative Coupling through the implementation in the commercial software Abaqus making use of the co-simulation engine. A hierarchical modeling and simulation approach is often required to alleviate modeling burdens. Particular focus has been devoted here on convergence acceleration and performance optimization. Two applications in statics with nonlinear material behavior and geometrically nonlinear formulation are considered here: first a holed curved plate under traction with elastic–plastic material, then a pre-stressed bolted joint connecting two plates between each other and subjected to traction load. Three different convergence acceleration techniques are compared in terms of convergence performance and accuracy. An inexact solver strategy is proposed to improve computing time performance. The results show promising results for the coupling technology and constitute a step forward in the availability of non-intrusive multi-scale modeling capabilities for complex structures and assemblies.

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来源期刊
CiteScore
4.80
自引率
3.20%
发文量
92
审稿时长
27 days
期刊介绍: The aim of this journal is to provide ideas and information involving the use of the finite element method and its variants, both in scientific inquiry and in professional practice. The scope is intentionally broad, encompassing use of the finite element method in engineering as well as the pure and applied sciences. The emphasis of the journal will be the development and use of numerical procedures to solve practical problems, although contributions relating to the mathematical and theoretical foundations and computer implementation of numerical methods are likewise welcomed. Review articles presenting unbiased and comprehensive reviews of state-of-the-art topics will also be accommodated.
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