Solid state experiments at extreme pressures (10–100 GPa) and strain rates (106–108s− 1)
are being developed on high energy laser facilities, and offer the possibility for exploring …

Solid-state dynamics experiments at very high pressures and strain rates are becoming
possible with high-power laser facilities, albeit over brief intervals of time and spatially small …

Under uniaxial high-stress shock compression it is believed that crystalline materials
undergo complex, rapid, micro-structural changes to relieve the large applied shear …

The powerful lasers being constructed for inertially confined fusion generate enormous
pressures extremely rapidly. These extraordinary machines both motivate the need and …

The molecular dynamics simulation method is used to investigate the dependence of crystal
orientation and shock wave strength on dislocation density evolution in single crystal Cu …

Using molecular dynamics (MD) simulations, we investigate the effect of vacancies on the
dynamic response of single crystal Cu to [100] shock loading, including plasticity and …

Molecular dynamics (MD) simulations are used to model the compression under uniaxial
strain of copper single crystals of different orientations at various temperatures and strain …

The dynamic evolution and interaction of defects under the conditions of shock loading in
single crystal and nanocrystalline Cu are investigated using a series of large-scale …

Initial temperature effects on shock responses, including shock-induced plasticity and
spalling damage behaviors of single-crystalline Cu are investigated by molecular dynamics …

Solid-liquid phase transitions in single crystal Cu during shock and subsequent release are
studied with large-scale classical molecular dynamics simulations. During shock …