The dependence of dislocation mobility on temperature, stress and alloy composition is a
key to describing plastic deformation in metals. A special case is the plasticity of body …

Significant progress in our understanding of plasticity in body-centered cubic (bcc) metals
during the last decade has enabled rigorous multiscale modeling based on quantitative …

The interaction of dislocations and solute atoms is key to understanding crystal plasticity in
alloys. I present a kinetic Monte Carlo (kMC) simulation of the glide of a screw dislocation in …

Multiscale discrete dislocation plasticity (MDDP) simulations are carried out to investigate
the mechanical response and microstructure evolution of BCC iron micropillars under …

Abstract 1/2111 screw dislocations that possess non-planar cores and thus a high lattice
friction (Peierls) stress control the plastic deformation of pure bcc metals. In this paper we …

In this article, we present a time-dependent deformation mechanism for fcc metal single
crystals in which the resulting deformation is produced by the cumulative effect of dislocation …

We have performed atomistic simulations of an isolated screw dislocation in bcc Mo and W
using Bond Order Potentials [Gröger, 2007]. Based on these results we formulated an …

Plasticity of body-centered cubic (bcc) metals is atypical at low temperatures, caused by the
important lattice friction of 1/2< 111> screw dislocations. In this paper, we present a yield …

A computational framework for the discrete dislocation dynamics simulation of body-
centered cubic (bcc) metals which incorporates atomistic simulation results is developed …

A mesoscopic simulation of dislocations and plasticity in bcc crystals at low temperatures is
developed and applied to the case of Ta. The thermally activated nucleation of double kinks …