Nanocomposite films of ZrN–Me (Me=Ag, Au, or Pd) were prepared using reactive unbalanced magnetron sputtering. The hardness and elastic modulus were measured by nanoindention and were found to vary differently with composition for the three nanocomposite structures. Young’s modulus was found to decrease much more dramatically with the increase in Me content for the ZrN–Ag system. These findings were attributed to the weaker bonding mechanism at the interface between the ceramic and the metallic phases, which is more prone to grain-boundary sliding as shown using first-principles calculations of the electronic structure at the interface for the three systems
AbstractZirconium nitride (ZrN) thin films were deposited on NiTi and Si substrates in the 23–570°C ...
Nanoscale multilayered TiN/ZrN films were deposited using sequential vacuum-arc deposition of Ti and...
The electronic structure, chemical bonding, and interface component in ZrN-AlN nanocomposites formed...
Nanocomposite films of ZrN-Me (Me=Ag, Au, or Pd) were prepared using reactive unbalanced magnetron s...
Nanocomposite films of ZrN-Me (Me = Ag, Au, or Pd) were produced by reactive unbalanced magnetron sp...
Ever since the hard coatings have been introduced, there has been a constant push for better mechani...
This paper reports on the growth and characterization of the structural and mechanical properties of...
Nanocomposite films of zirconium nitride/silver were deposited by unbalanced magnetron sputtering on...
Ternary metal nitride nanocomposite thin films have great potential as hard protective coatings for ...
Structure and mechanical properties of nanoscale multilayers of ZrN/Zr0.63Al0.37N grown by reactive ...
[[abstract]]Nanocrystalline ZrN thin films were successfully deposited on Si (100) and AISI 316 stai...
The aim of this study was to investigate the effect of Zr as alloying element to carbon films, parti...
ZrN/Si3N4 multilayer coating that alternates with either nanocrystalline ZrN or amorphous Si3N4 inte...
The use of thin metal structures to add strength to metallic systems due to dislocation interactions...
Various approaches to creating multicomponent na-nocomposite coatings of high and superhigh hardness...
AbstractZirconium nitride (ZrN) thin films were deposited on NiTi and Si substrates in the 23–570°C ...
Nanoscale multilayered TiN/ZrN films were deposited using sequential vacuum-arc deposition of Ti and...
The electronic structure, chemical bonding, and interface component in ZrN-AlN nanocomposites formed...
Nanocomposite films of ZrN-Me (Me=Ag, Au, or Pd) were prepared using reactive unbalanced magnetron s...
Nanocomposite films of ZrN-Me (Me = Ag, Au, or Pd) were produced by reactive unbalanced magnetron sp...
Ever since the hard coatings have been introduced, there has been a constant push for better mechani...
This paper reports on the growth and characterization of the structural and mechanical properties of...
Nanocomposite films of zirconium nitride/silver were deposited by unbalanced magnetron sputtering on...
Ternary metal nitride nanocomposite thin films have great potential as hard protective coatings for ...
Structure and mechanical properties of nanoscale multilayers of ZrN/Zr0.63Al0.37N grown by reactive ...
[[abstract]]Nanocrystalline ZrN thin films were successfully deposited on Si (100) and AISI 316 stai...
The aim of this study was to investigate the effect of Zr as alloying element to carbon films, parti...
ZrN/Si3N4 multilayer coating that alternates with either nanocrystalline ZrN or amorphous Si3N4 inte...
The use of thin metal structures to add strength to metallic systems due to dislocation interactions...
Various approaches to creating multicomponent na-nocomposite coatings of high and superhigh hardness...
AbstractZirconium nitride (ZrN) thin films were deposited on NiTi and Si substrates in the 23–570°C ...
Nanoscale multilayered TiN/ZrN films were deposited using sequential vacuum-arc deposition of Ti and...
The electronic structure, chemical bonding, and interface component in ZrN-AlN nanocomposites formed...