Andere Kunden interessierten sich auch für
![Large-area Low-cost Fabrication of Complex Plasmonic Nanostructures]( "Large-area Low-cost Fabrication of Complex Plasmonic Nanostructures")
Large-area Low-cost Fabrication of Complex Plasmonic Nanostructures25,99 €![Resonances]( "Resonances")
Resonances77,99 €![Refractive Index]( "Refractive Index")
Refractive Index25,99 €![Active Plasmonic Devices]( "Active Plasmonic Devices")
Active Plasmonic Devices74,99 €![Resonances in Few-Body Systems]( "Resonances in Few-Body Systems")
Resonances in Few-Body Systems74,99 €![Tables of Ordinary and Extraordinary Refractive Indices, Group Refractive Indices and h¿o,x(f)-Curves for Standard Ionospheric Layer Models]( "Tables of Ordinary and Extraordinary Refractive Indices, Group Refractive Indices and h¿o,x(f)-Curves for Standard Ionospheric Layer Models")
Tables of Ordinary and Extraordinary Refractive Indices, Group Refractive Indices and h¿o,x(f)-Curves for Standard Ionospheric Layer Models39,99 €![Schumann Resonances]( "Schumann Resonances")
Schumann Resonances25,99 €
In this book the sensing properties of plasmonic resonators for changes in the surrounding refractive index are investigated. A self-consistent and general sensing theory is developed. This theory connects the electrodynamic properties of plasmonic resonators like resonance wavelength and electric field distribution to the sensitivity for refractive index changes. A figure of merit (FOM) is derived which includes the effects of noise and in its general form directly states if a certain change in refractive index will be measurable or not. For the FOM in the quasi-static limit absolute bounds and scalings are derived. These bounds are based on the localization of electromagnetic energy for which analytic expressions were known before. To confirm the developed theory numerical calculations and an experiment with crescent shaped plasmonic resonators is carried out and good agreement is found.