A continuum mechanical theory is formulated to address deformation of ferrous alloys under
combined high-pressure, high-rate loading in the presence of potentially large magnetic …

Applying an external magnetic field can obtain unique microstructure and thus enhanced
properties, which are unattainable without such a field. The thermodynamic description is …

Localization, in the form of adiabatic shear, is analyzed in viscoplastic solids that may
undergo structural transformation driven by pressure, shear stress, temperature, and …

A finite strain continuum theory is advanced for static and dynamic simulations of material
response under combined mechanical and magnetic fields. The general thermomechanical …

Processing of materials under an externally applied magnetic field could enable exploitation
of broader processing spaces, affecting the relative stability of phases. To properly predict …

This report documents the Python module, MAGNETS. py, which was developed with the
intention of modeling phase transformations in iron-based alloys under the influence of …

Ferrous metals include iron (Fe), steels, and other Fe-based alloys. When subjected to large
mechanical forces, these materials demonstrate a variety of deformation mechanisms …

Magnetic fields can influence phase transformations in ferrous materials. External fields alter
the Gibbs free energy difference between phases with different magnetic properties, for …

One of the more important properties of magnetic materials is their magnetization, which
influences how a material behaves when exposed to a magnetic field. For instance, it has …