Dislocations play a vital role in the mechanical behavior of crystalline materials during
deformation. To capture dislocation phenomena across all relevant scales, a multiscale …

Modeling and simulation is transforming modern materials science, becoming an important
tool for the discovery of new materials and material phenomena, for gaining insight into the …

This paper reviews recent studies, that not only includes both experiments and modeling
components, but celebrates a close coupling between these techniques, in order to provide …

Diffraction peak profile analysis (DPPA) is a valuable method to understand the
microstructure and defects present in a crystalline material. Peak broadening anisotropy …

We present an improved framework of the spectral-based Discrete Dislocation Dynamics
(DDD) approach introduced in (Bertin et al., 2015; Bertin and Capolungo, 2018), that …

This work proposes a data-analytics-based method to correlate diffraction peak broadening
to dislocation density in relaxed dislocation networks. The model relies on two key …

Analysis of large scale discrete dislocation data requires the characterisation of complex
dislocation networks by suitable average quantities. In the current work, we suggest …

To assist in the planning of in situ loading, HEDM experiments by generating synthetic
diffraction images of virtual samples in loaded and unloaded states. The user designates a …

Defects and strain states in crystals can be investigated using X-ray and neutron diffraction,
two types of penetrating, non-destructive detection techniques. Various approximations are …

A class of stoichiometric, ordered MR alloys (where M denotes a metal and R either a rare
earth or group IV refractory metal) with B2 (CsCl) crystal structure, were discovered to …