Optical and magneto-optical properties of Au:Conanoparticles and Co:Aunanoparticles doped magnetoplasmonic systems

Abstract

Size mediated control of the optical and magneto-optical properties of Co nanoparticles in Zr O 2

Magnetoplasmonic properties of Ag-Co composite nanohole arrays

“…Up to now, there was only a limited experimental works on the CMP thin films. 11,[13][14][15][16][17] For example, Yang et al studied the composite film of Co and Au with different Co:Au composition ratios and fabrication temperatures, where they noticed that the MO activities increased with increasing Co composition. 11 A recent study by David et al showed an improvement in magneto-optical surface plasmon resonance (MOSPR) responses and signal-to-noise ratio in a MOSPR sensor using a layer of Au-Co alloy instead of a single layer of Au or a tri-layer sandwiched Au/Co/Au structure.…”

Quantum plasmon and Rashba-like spin splitting in self-assembled CoxC60composites with enhanced Co content (x> 15)

“…In particular, the subsystem of Co clusters formed in Co x C 60 films with x>2 suggests their hidden potential in plasmonics, proper implementation of which could open new sources for spin current manipulation [17]. In spite of the enhanced damping of plasmonic excitations in the ferromagnetic metals [18,19], the plasmonic properties of the magnetic nanostructures are of highest interest due to the practical importance of the magneto-plasmonic effects detected in such nanomaterials [20][21][22][23][24]. The plasmon damping is usually overcome through fabrication of core-shell nanoparticles (magnetic metal−noble metal) [20][21][22][23][24].…”

Degradation mechanism and way of surface protection of nickel nanostructures

“…Such materials can significantly change electronic, photonic, magnetic, mechanical and chemical properties of the surface, for example by inhibiting agglomeration or by imparting antiseptic properties [56]. In addition, systems "NSs + inorganic coatings" are promising for application in the field of catalysis, detection (for example, using SERS), creating of nano-and microelectronics elements [57].…”