Changhong Zhou, Qing Zhong
Large deformation analysis is a crucial foundation for studying the nonlinear behavior and progressive damage of materials and structures. Traditional mesh methods often struggle with large-scale mesh distortion when dealing with such issues, which can compromise solution efficiency and accuracy, and in severe cases, even cause computational interruptions. In contrast, the material point method (MPM) employs a dual framework of Lagrangian particles and Eulerian background grids, effectively integrating the advantages of both Lagrangian and Eulerian approaches, thus avoiding mesh distortion and challenges in handling convective terms. Consequently, many researchers are dedicated to developing an MPM for addressing high-speed impact and fluid–structure interaction problems that involve material failure and large deformations. This paper begins by introducing the fundamental theory and contact algorithms of the MPM. It then systematically summarizes the latest advancements and applications of the MPM, including its hybridization and coupling with other algorithms, in simulating various large deformation scenarios such as high-speed impacts, explosions, dynamic cracking.
@article{66d16890-418e-4473-adea-a6235d0f4d9d,
title={Research Advances in Large Deformation Analysis and Applications of the Material Point Method},
author={Changhong Zhou and Qing Zhong},
year={2025},
language={English}
}TY - JOUR TI - Research Advances in Large Deformation Analysis and Applications of the Material Point Method AU - Changhong Zhou AU - Qing Zhong PY - 2025 LA - English ER -
Haouari Khadra, Rahmani Kouider
Industrial applications need to use different systems for the problem of gas cleaning. A lot of processes have been developed, such as the use of a ve
Xin Liu, Jiachen Zhu
The evolution of microstructures during the hot working of metallic materials determines their workability and properties. Recrystallization is an imp
Meng Liu, Hongrui Zhou
Numerical simulation of metal microstructure evolution is essential for material design and performance optimization. This paper reviews major simulat
Kamel Touileb, Sahbi Boubaker
Tungsten Inert Gas (TIG) welding is a widespread welding process used in the industry for high-quality joints. However, this welding process suffers f
Wanghui Xu, Xiaoyu Cai
To enhance the performance of Ti6Al4V titanium alloy joints, ultrasonic frequency pulsed TIG welding was employed. The microstructure and mechanical p