Enhancing the strength of metallic laminates through decreasing the constituent layer
thickness from micrometer to nanometer scale is usually accompanied by the degradation of …

In this work, we performed massive crystal plasticity finite element (CPFE) simulations to
reveal the effects of element type on the accuracy of predicted mechanical fields and overall …

The growth of an isolated spherical void at and near a grain boundary or a triple junction is
studied by means of full-field crystal plasticity simulations with explicit representation of the …

Ductile materials, such as metal alloys, can undergo substantial deformation before failure.
Additionally, these materials are usually of polycrystalline composition and exhibit strongly …

The aim of this work is to develop a fast numerical method for solving conductivity problems
in heterogeneous media subjected to Dirichlet boundary conditions. The method is based …

This paper presents a novel formulation and its robust numerical implementation of strain-
gradient (SG) crystal plasticity within a large-strain (LS) elasto-viscoplastic (EVP) fast Fourier …

Integrated Computational Materials Engineering (ICME) is a set of methodologies utilized by
researchers and engineers assisting the study of material behaviour during production …

This work explores connections between FFT-based computational micromechanics and a
homogenization approach based on the finite Radon transform introduced by Derraz and co …

This work presents a spectral micromechanical formulation for obtaining the full-field and
homogenized response of elastic micropolar composites. The algorithm relies on a coupled …

High-energy shot peening (HESP) is an effective way to achieve surface nanocrystallization
modification of additive manufactured metal parts, significantly improving their mechanical …