Based on thermodynamic calculations, it is shown that metal crystallization is an equilibrium nanostructural process. At the beginning, trigonal or tetragonal structure-forming nanocrystals are formed from elementary nanocrystals. Then crystallization centers are formed from them. Further, tetragonal or hexagonal dendrites are formed from them and tetragonal or trigonal structure-forming nanocrystals. Their forms depend on the degree of branching of dendrites. The most branched of them (compact dendrites) are tetragonal or hexagonal crystals
In the existing theories of liquid state of metals and alloys the basic structural element is atom. ...
The instability of nanocrystalline materials against both grain growth and bulk phase separation is ...
Synthesis of nanocrystals yields polydisperse distributions, which not only implies a distribution o...
On the basis of thermodynamic calculations it is shown that crystallization of metals is a thermodyn...
It has been shown that atomic and atomic cluster theories cannot be the basis for theories of crysta...
Most properties of nanocrystalline materials are shape-dependent, providing their exquisite tunabili...
Growing complex metallic crystals, supported high index facet nanocrystal composites and tunable por...
Based on thermodynamic calculations, it is shown that metal melting is an equilibrium process that o...
A brief overview of the field of metallic nanoparticles and nanocrystalline materials preparation an...
The structure and stability of metallic materials needs to be understood before dealing them for a p...
Dendritic silver and copper crystals were produced via Galvanic replacement reactions on zinc and al...
Controlled self-organization of nanoparticles can lead to new materials. The colloidal crystallizati...
Nanocrystals and supracrystals are arrangements of highly ordered atoms and nanocrystals, respective...
Learning from the classical crystallization mode and the conventional oriented attachment mode, we d...
Modern conventional notions of metallic melt structure are associated with clusters that have no int...
In the existing theories of liquid state of metals and alloys the basic structural element is atom. ...
The instability of nanocrystalline materials against both grain growth and bulk phase separation is ...
Synthesis of nanocrystals yields polydisperse distributions, which not only implies a distribution o...
On the basis of thermodynamic calculations it is shown that crystallization of metals is a thermodyn...
It has been shown that atomic and atomic cluster theories cannot be the basis for theories of crysta...
Most properties of nanocrystalline materials are shape-dependent, providing their exquisite tunabili...
Growing complex metallic crystals, supported high index facet nanocrystal composites and tunable por...
Based on thermodynamic calculations, it is shown that metal melting is an equilibrium process that o...
A brief overview of the field of metallic nanoparticles and nanocrystalline materials preparation an...
The structure and stability of metallic materials needs to be understood before dealing them for a p...
Dendritic silver and copper crystals were produced via Galvanic replacement reactions on zinc and al...
Controlled self-organization of nanoparticles can lead to new materials. The colloidal crystallizati...
Nanocrystals and supracrystals are arrangements of highly ordered atoms and nanocrystals, respective...
Learning from the classical crystallization mode and the conventional oriented attachment mode, we d...
Modern conventional notions of metallic melt structure are associated with clusters that have no int...
In the existing theories of liquid state of metals and alloys the basic structural element is atom. ...
The instability of nanocrystalline materials against both grain growth and bulk phase separation is ...
Synthesis of nanocrystals yields polydisperse distributions, which not only implies a distribution o...