The past few years have seen a rapid growth in the development and exploitation of X-ray diffraction on ultra-fast time-scales. One area of physics which has benefited particularly from these advances is the the field of shock-waves. Whilst it has been known for many years that crystalline matter, subjected to uniaxial shock compression, can undergo plastic deformation and, for certain materials, polymorphic phase transformations, it has hitherto not been possible to observe the rearrangement of the atoms on the pertinent timescales. We have used laser-plasma generated X-rays to study how single crystals of metals (copper and iron) react to uniaxial shock compression, and observed rapid plastic flow (in the case of copper), and directly obs...
In situ x-ray diffraction studies of iron under shock conditions confirm unambiguously a phase chang...
In situ x-ray diffraction studies of iron under shock conditions confirm unambiguously a phase chang...
Multimillion atom non-equilibrium molecular dynamics simulations for shock compressed iron are analy...
In situ X-ray diffraction allows the determination of the structure of transient states of matter. W...
In this thesis, Molecular Dynamics simulations of shocked single crystals of Copper and Iron are stu...
In this thesis, Molecular Dynamics simulations of shocked single crystals of Copper and Iron are stu...
In situ X-ray diffraction allows the determination of the structure of transient states of matter. W...
Lattice level measurements of material response under extreme conditions are required to build a phe...
The ultrafast evolution of microstructure is key to understanding high-pressure and strain-rate phen...
textThe response of materials under extreme temperature and pressure conditions is a topic of great ...
textThe response of materials under extreme temperature and pressure conditions is a topic of great ...
Lattice level measurements of material response under extreme conditions are required to build a phe...
In-situ x-ray diffraction was used to study the response of single crystal iron under shock conditio...
A 3-year LDRD-ER project to study the response of shocked materials at high pressure and high strain...
Under shock compression it is believed that crystalline materials undergo complex, rapid, micro-stru...
In situ x-ray diffraction studies of iron under shock conditions confirm unambiguously a phase chang...
In situ x-ray diffraction studies of iron under shock conditions confirm unambiguously a phase chang...
Multimillion atom non-equilibrium molecular dynamics simulations for shock compressed iron are analy...
In situ X-ray diffraction allows the determination of the structure of transient states of matter. W...
In this thesis, Molecular Dynamics simulations of shocked single crystals of Copper and Iron are stu...
In this thesis, Molecular Dynamics simulations of shocked single crystals of Copper and Iron are stu...
In situ X-ray diffraction allows the determination of the structure of transient states of matter. W...
Lattice level measurements of material response under extreme conditions are required to build a phe...
The ultrafast evolution of microstructure is key to understanding high-pressure and strain-rate phen...
textThe response of materials under extreme temperature and pressure conditions is a topic of great ...
textThe response of materials under extreme temperature and pressure conditions is a topic of great ...
Lattice level measurements of material response under extreme conditions are required to build a phe...
In-situ x-ray diffraction was used to study the response of single crystal iron under shock conditio...
A 3-year LDRD-ER project to study the response of shocked materials at high pressure and high strain...
Under shock compression it is believed that crystalline materials undergo complex, rapid, micro-stru...
In situ x-ray diffraction studies of iron under shock conditions confirm unambiguously a phase chang...
In situ x-ray diffraction studies of iron under shock conditions confirm unambiguously a phase chang...
Multimillion atom non-equilibrium molecular dynamics simulations for shock compressed iron are analy...