Nitsche-based material point method for large deformation frictional contact problems

IF 2.8 3区 工程技术 Q1 MATHEMATICS, INTERDISCIPLINARY APPLICATIONS
Kun Zhang, Shui-Long Shen, Hui Wu, Annan Zhou
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引用次数: 0

Abstract

Large deformation problems in practical engineering are often accompanied by contact phenomena. While the conventional material point method (MPM) is efficient at solving large deformation problems, it cannot handle slip contacts. This paper presents Nitsche’s method for analysing large deformations with frictional contact via the MPM. Nitsche’s method has good features of variational consistency and no additional unknowns, and it is integrated into the MPM in a weak manner based on the principle of virtual power. Within the integrated formulation, both biased and unbiased computational schemes are derived to adapt to different forms of contact. Additionally, B-spline shape functions are employed to alleviate cell-crossing noise, and an improved particle extrapolation approach for accurate contact detection is introduced. The efficacy of the proposed Nitsche-based MPM is validated through several representative benchmarks from the literature. We further apply the proposed method to simulate the water leakage problem of the lining gasketed joint in shield tunnels. Comparison with experimental results demonstrates the applicability of the proposed method.

大变形摩擦接触问题的材料点法
在实际工程中,大变形问题往往伴随着接触现象。虽然传统的质点法(MPM)在解决大变形问题上是有效的,但它不能处理滑动接触问题。本文介绍了Nitsche的方法分析大变形与摩擦接触通过MPM。Nitsche方法具有变分一致性好、无附加未知量的特点,并基于虚功率原理以弱方式集成到MPM中。在集成公式中,导出了有偏和无偏的计算格式,以适应不同形式的接触。此外,采用b样条形状函数来减轻细胞交叉噪声,并引入改进的粒子外推方法来实现精确的接触检测。通过文献中的几个代表性基准验证了所提出的基于nitsche的MPM的有效性。将该方法进一步应用于盾构隧道衬砌衬垫接头的漏水问题模拟。与实验结果的对比验证了所提方法的适用性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Computational Particle Mechanics
Computational Particle Mechanics Mathematics-Computational Mathematics
CiteScore
5.70
自引率
9.10%
发文量
75
期刊介绍: GENERAL OBJECTIVES: Computational Particle Mechanics (CPM) is a quarterly journal with the goal of publishing full-length original articles addressing the modeling and simulation of systems involving particles and particle methods. The goal is to enhance communication among researchers in the applied sciences who use "particles'''' in one form or another in their research. SPECIFIC OBJECTIVES: Particle-based materials and numerical methods have become wide-spread in the natural and applied sciences, engineering, biology. The term "particle methods/mechanics'''' has now come to imply several different things to researchers in the 21st century, including: (a) Particles as a physical unit in granular media, particulate flows, plasmas, swarms, etc., (b) Particles representing material phases in continua at the meso-, micro-and nano-scale and (c) Particles as a discretization unit in continua and discontinua in numerical methods such as Discrete Element Methods (DEM), Particle Finite Element Methods (PFEM), Molecular Dynamics (MD), and Smoothed Particle Hydrodynamics (SPH), to name a few.
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