As one of the arbitrary Lagrangian–Eulerian methods, the material point method (MPM)
owns intrinsic advantages in simulation of large deformation problems by combining the …

Handling contact problems in the Material Point Method (MPM) has long been a challenge.
Traditional grid-based contact approaches often face issues with mesh dependency, while …

Abstract Most existing Finite Element Method and the Material Point Method (FEM-MPM)
coupling is designed for explicit solvers. By contrast, implicit schemes offer the advantage of …

Most existing two-phase, two-layer Material Point Method (MPM) programs operate in
explicit form, which lacks computational efficiency. This study proposes a high-performance …

An explicit phase-field total Lagrangian material point method (TLMPM) is proposed in this
paper for the effective simulation of the dynamic fracture behavior of hyperelastic solids …

The material point method (MPM) is frequently used to simulate large deformations of nearly
incompressible materials such as water, rubber, and undrained porous media. However …

Subjected to external loadings, polymeric materials, eg, biological tissues, hydrogels, and
elastomers, may undergo extreme, nearly incompressible,(self-) contact deformations. For …

Abstract For conventional Material Point Method (MPM), both explicit-based and implicit-
based MPM have shortcomings: explicit MPM has high requirements on time steps, and …

This paper introduces BFEMP, a new approach for monolithically coupling the Material Point
Method (MPM) with the Finite Element Method (FEM) through barrier energy-based particle …

The material point method (MPM) has proven to be an effective numerical approach for
simulating extreme events involving large deformations. Although numerous MPM variants …