Manufacturing materials for high performance applications with tailored properties requires
a deep knowledge about the sintering process and especially the underlying microstructure …

Turbulent flows laden with large, deformable drops are ubiquitous in nature and in a wide
range of industrial processes. Prediction of the interactions between drops, which deform …

During the past two decades, researchers have shown interest in large-scale simulations to
analyze alloy solidification. Advances in in situ X-ray observations of the microstructural …

The modeling and simulation of microstructure evolution is usually subject to the multiphase-
field method. In this context, thermomechanical coupling is often neglected, even when non …

Porous membranes have been utilized intensively in a wide range of fields due to their
special characteristics and a rigorous characterization of their microstructures is crucial for …

An implementation of the crystal plasticity theory in the context of the multiphase-field
method provides a numerically efficient tracking of evolving grain boundaries, modeled as …

The role of grain boundaries (GBs) and especially the migration of GBs is of utmost
importance in regard of the overall mechanical behavior of polycrystals. By implementing a …

Cyclic microfracturing and epitaxial crystal growth have long been recognized in crack‐seal
veins, but an understanding of a single crack‐seal cycle is still missing. Here we present a …

A new phase-field modeling framework with an emphasis on performance, flexibility, and
ease of use is presented. Foremost among the strategies employed to fulfill these objectives …

Quantitative simulation of microstructure evolution during heat-treatment of alloys under
external magnetic field represents a severe challenge. In the present work, the Gibbs free …