Coupling effect of large deformation and surface roughness on dynamic frictional contact behaviors of hyperelastic material

IF 3.7 2区 工程技术 Q1 MATHEMATICS, INTERDISCIPLINARY APPLICATIONS Computational Mechanics Pub Date : 2024-07-03 DOI:10.1007/s00466-024-02513-0
Chunfa Wang, Yudong Li, Yan Li, Yajie Fan, Zhiqiang Feng
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Abstract

The energy is a crucial factor in dynamical contact analysis. And the complexity of real-world surface morphologies characterized by roughness, poses a considerable challenge for accurately predicting their dynamic contact behaviors. Hence, it is meaningful to explore the influence of surface roughness on energy dissipation. In this study, the two-dimensional geometry with randomly rough surface is reconstructed based on Karhunen–Loève expansion and isogeometric collocation method. And a contact algorithm is tailored for dynamic frictional contact problems by incorporating the Bi-potential method into isogeometric analysis. Numerical results show that roughness factors such as the correlation length and square roughness of the randomly rough surface significantly affect the maximum ratio of real contact area to the normal contact area and the rate of energy dissipation. This work could provide a reference for future research on the dynamic contact between rough surfaces.

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大变形和表面粗糙度对超弹性材料动态摩擦接触行为的耦合效应
能量是动态接触分析中的一个关键因素。而现实世界中以粗糙度为特征的表面形态非常复杂,这给准确预测其动态接触行为带来了巨大挑战。因此,探索表面粗糙度对能量耗散的影响很有意义。在本研究中,基于卡尔胡宁-洛埃夫扩展和等几何配位法重建了具有随机粗糙表面的二维几何体。通过将 Bi-potential 方法纳入等距分析,为动态摩擦接触问题定制了一种接触算法。数值结果表明,随机粗糙表面的相关长度和平方粗糙度等粗糙度因素会显著影响实际接触面积与法向接触面积的最大比值以及能量耗散率。这项工作可为今后粗糙表面之间的动态接触研究提供参考。
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来源期刊
Computational Mechanics
Computational Mechanics 物理-力学
CiteScore
7.80
自引率
12.20%
发文量
122
审稿时长
3.4 months
期刊介绍: The journal reports original research of scholarly value in computational engineering and sciences. It focuses on areas that involve and enrich the application of mechanics, mathematics and numerical methods. It covers new methods and computationally-challenging technologies. Areas covered include method development in solid, fluid mechanics and materials simulations with application to biomechanics and mechanics in medicine, multiphysics, fracture mechanics, multiscale mechanics, particle and meshfree methods. Additionally, manuscripts including simulation and method development of synthesis of material systems are encouraged. Manuscripts reporting results obtained with established methods, unless they involve challenging computations, and manuscripts that report computations using commercial software packages are not encouraged.
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