Plastic deformation in cubic metals is relatively simple due to the high crystallographic
symmetry of the underlying structure. Typically, one unique slip mode can provide arbitrary …

Three effects define deformation‐twinning based metal strengthening: reduction of the free
slip distance (Hall‐Petch effect), transformation of glissile to sessile dislocations (Basinski …

Diamond anvil cells (DAC) in radial synchrotron X-ray diffraction geometry were used to
investigate texture development and identify deformation mechanisms in zinc and osmium at …

Deformation twinning is an important plastic carrier competing with the ordinary dislocation
slip in a broad class of crystalline solids, which critically controls the mechanical properties …

There have been considerable recent advances in the understanding of anisotropy due to
crystallographic texturing, and a reasonably successful elasto-viscoplasticity theory for the …

Deformation twinning was introduced in Ta through dynamic compression shear and
uniaxial compression at high strain rates up to∼ 10 4 s− 1 at low temperatures. Under …

The plastic deformation of polycrystalline metals is primarily carried by the crystallographic
glide of dislocations and growth of deformation twins. According to the thermodynamic …

The competition between deformation twinning and dislocation slip underpins the evolution
of mesoscale plasticity in face-centered cubic materials. While competition between these …

Owing to its ability to incorporate Schmid's law at each integration point, crystal plasticity has
proven a powerful tool to simulate and predict the slip behavior at the grain level and the …

At temperatures below those at which individual atoms move by diffusion, slip and twinning
are the major deformation modes that enable a solid to change shape under the action of an …