In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver film have been fully optimized for single molecule Surface-Enhanced Raman Scattering (SERS) spectroscopy. The SERS signal was found to be strongly dependent on the particle size and the molecule orientation with respect to the field inside the nano-gap. Using Finite Difference Time Domain (FDTD) simulations to complement the experimental measurements, the complex interplay between the excitation enhancement and the emission enhancement of the system as a function of particle size were highlighted. Additionally, in conjunction with Density Functional Theory (DFT), the well-defined field direction in the nano-gap enables to recover the orient...
We isolated the plasmonic contribution to surface-enhanced Raman scattering (SERS) and found it to b...
textThis thesis is focused on understanding the interactions between molecules and surface-enhanced ...
Understanding the detailed electromagnetic field distribution inside a plasmonically coupled nanostr...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
Determining the molecular orientation at the single molecule level is of key importance for a wide r...
The aim of this thesis is to design plasmonic nano-gaps capable of detecting materials down to suffi...
The aim of this thesis is to design plasmonic nano-gaps capable of detecting materials down to suffi...
The aim of this thesis is to design plasmonic nano-gaps capable of detecting materials down to suffi...
The research reported in this thesis focuses on the high field localisation formed in the nanometric...
Single molecule surface enhanced Raman scattering (SM-SERS) is a highly local effect occurring at sh...
We isolated the plasmonic contribution to surface-enhanced Raman scattering (SERS) and found it to b...
textThis thesis is focused on understanding the interactions between molecules and surface-enhanced ...
Understanding the detailed electromagnetic field distribution inside a plasmonically coupled nanostr...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
In this work, plasmonic nano-gaps consisting of a silver nanoparticle coupled to an extended silver ...
Determining the molecular orientation at the single molecule level is of key importance for a wide r...
The aim of this thesis is to design plasmonic nano-gaps capable of detecting materials down to suffi...
The aim of this thesis is to design plasmonic nano-gaps capable of detecting materials down to suffi...
The aim of this thesis is to design plasmonic nano-gaps capable of detecting materials down to suffi...
The research reported in this thesis focuses on the high field localisation formed in the nanometric...
Single molecule surface enhanced Raman scattering (SM-SERS) is a highly local effect occurring at sh...
We isolated the plasmonic contribution to surface-enhanced Raman scattering (SERS) and found it to b...
textThis thesis is focused on understanding the interactions between molecules and surface-enhanced ...
Understanding the detailed electromagnetic field distribution inside a plasmonically coupled nanostr...