Atomistic simulations show that high-energy grain boundaries in nanocrystalline copper and nanocrystalline silicon are highly disordered. In the case of silicon the structures of the grain boundaries are essentially indistinguishable from that of bulk amorphous silicon. Based on a free-energy argument, we suggest that below a critical grain size nanocrystalline materials should be unstable with respect to the amorphous phase
Nanocrystalline metals are promising materials for applications that require outstanding strength an...
Grain boundaries play an important role in dictating the mechanical and physical properties of nanoc...
Nanocrystalline metals contain a large fraction of high-energy grain boundaries, which may be consid...
A recent molecular dynamics simulation method for growth of fully dense nanocrystalline materials cr...
Molecular-dynamics simulations were used to synthesize nanocrystalline silicon with a grain size of ...
Using molecular dynamics simulations, the grain boundaries in thin polycrystalline silicon films (co...
The remarkably high strength of nanocrystalline metals is of great interest to researchers and seems...
The instability of nanocrystalline materials against both grain growth and bulk phase separation is ...
Due to their extraordinary mechanical properties, the field of research on nanocrystalline metals an...
As the grain size in nanocrystalline materials is made ever smaller, the questions of what the small...
The microstructure of computer generated nanocrystalline coppers is simulated by using molecular dyn...
Molecular dynamics investigation of plasticity in a model nanocrystalline silicon system demonstrate...
Nanocrystalline metals have been the focus of current literature due to their interesting mechanical...
Abstract Nanocrystalline metals are transitioning from laboratory curiosities to engi...
Grain boundaries are the dominating type of defect in nanocrystalline materials. Understanding their...
Nanocrystalline metals are promising materials for applications that require outstanding strength an...
Grain boundaries play an important role in dictating the mechanical and physical properties of nanoc...
Nanocrystalline metals contain a large fraction of high-energy grain boundaries, which may be consid...
A recent molecular dynamics simulation method for growth of fully dense nanocrystalline materials cr...
Molecular-dynamics simulations were used to synthesize nanocrystalline silicon with a grain size of ...
Using molecular dynamics simulations, the grain boundaries in thin polycrystalline silicon films (co...
The remarkably high strength of nanocrystalline metals is of great interest to researchers and seems...
The instability of nanocrystalline materials against both grain growth and bulk phase separation is ...
Due to their extraordinary mechanical properties, the field of research on nanocrystalline metals an...
As the grain size in nanocrystalline materials is made ever smaller, the questions of what the small...
The microstructure of computer generated nanocrystalline coppers is simulated by using molecular dyn...
Molecular dynamics investigation of plasticity in a model nanocrystalline silicon system demonstrate...
Nanocrystalline metals have been the focus of current literature due to their interesting mechanical...
Abstract Nanocrystalline metals are transitioning from laboratory curiosities to engi...
Grain boundaries are the dominating type of defect in nanocrystalline materials. Understanding their...
Nanocrystalline metals are promising materials for applications that require outstanding strength an...
Grain boundaries play an important role in dictating the mechanical and physical properties of nanoc...
Nanocrystalline metals contain a large fraction of high-energy grain boundaries, which may be consid...