There is a growing interest in refractory metal thin films for a range of emerging nanophotonic applications including high temperature plasmonic structures and infrared superconducting single photon detectors. We present a detailed comparison of optical properties for key representative materials in this class (NbN, NbTiN, TiN and MoSi) with texture varying from crystalline to amorphous. NbN, NbTiN and MoSi have been grown in an ultra-high vacuum sputter deposition system. Two different techniques (sputtering and atomic layer deposition) have been employed to deposit TiN. We have carried out variable angle ellipsometric measurements of optical properties from ultraviolet to mid infrared wavelengths. We compare with high resolution transmis...
Rapid growth of plasmonics and nonlinear optics in recent decades has driven a new demand for materi...
AbstractThin metal films have recently attracted large interest due to their practical application i...
Titanium nitride (TiN) is a promising plasmonic material alternative to gold and silver thanks to it...
There is a growing interest in refractory metal thin films for a range of emerging nanophotonic appl...
The refractory metal titanium nitride is promising for high-temperature nanophotonic and plasmonic a...
Over the last years, promising concepts and practical approaches of miniaturized devices with remark...
Publication status: PublishedGroup IVB metal nitrides have attracted great interest as alternative p...
Transition metal nitrides have recently garnered much interest as alternative materials for robust p...
Ultrathin layers of noble metals obtained by deposition to the substrate during evaporation in high ...
Ultrathin layers of noble metals obtained by deposition to the substrate during evaporation in high ...
Ultrathin layers of noble metals obtained by deposition to the substrate during evaporation in high ...
New opportunities for plasmonic applications at high temperatures have stimulated interest in refrac...
New opportunities for plasmonic applications at high temperatures have stimulated interest in refrac...
Typical materials for optical Microwave Kinetic Inductance Detetectors (MKIDs) are metals with a nat...
The fields of nanophotonics and metamaterials have revolutionized the way we think of optical space ...
Rapid growth of plasmonics and nonlinear optics in recent decades has driven a new demand for materi...
AbstractThin metal films have recently attracted large interest due to their practical application i...
Titanium nitride (TiN) is a promising plasmonic material alternative to gold and silver thanks to it...
There is a growing interest in refractory metal thin films for a range of emerging nanophotonic appl...
The refractory metal titanium nitride is promising for high-temperature nanophotonic and plasmonic a...
Over the last years, promising concepts and practical approaches of miniaturized devices with remark...
Publication status: PublishedGroup IVB metal nitrides have attracted great interest as alternative p...
Transition metal nitrides have recently garnered much interest as alternative materials for robust p...
Ultrathin layers of noble metals obtained by deposition to the substrate during evaporation in high ...
Ultrathin layers of noble metals obtained by deposition to the substrate during evaporation in high ...
Ultrathin layers of noble metals obtained by deposition to the substrate during evaporation in high ...
New opportunities for plasmonic applications at high temperatures have stimulated interest in refrac...
New opportunities for plasmonic applications at high temperatures have stimulated interest in refrac...
Typical materials for optical Microwave Kinetic Inductance Detetectors (MKIDs) are metals with a nat...
The fields of nanophotonics and metamaterials have revolutionized the way we think of optical space ...
Rapid growth of plasmonics and nonlinear optics in recent decades has driven a new demand for materi...
AbstractThin metal films have recently attracted large interest due to their practical application i...
Titanium nitride (TiN) is a promising plasmonic material alternative to gold and silver thanks to it...