Interfacing Carbon Nanotubes with Nanoantennas for Simulataneous Multifunctional Spectroscopy and Electrical Nanocharacterization

Lead Research Organisation: Imperial College London
Department Name: Dept of Physics

Abstract

Our central aim is to design and investigate the interface between plasmonic nanoantennas and single molecules in order to allow for the simultaneous optical and electrical characterization of the nanosystems. The nanoantennas are used as an efficient channel for electromagnetic radiation from the far field to the nanometric volume occupied by the single molecule, therefore enhancing its interaction with radiation. This enables functional spectroscopy of single molecules without relying on intrinsic molecular resonances. The rational design of the nanoantenna/molecule interface will be applicable to a wide variety of molecular systems via careful design of the underlying plasmonic resonances. We will focus on single-walled carbon nanotubes as a particularly relevant molecular test bed.
 
Description * Development of optical nanoantennas that can be interfaced with single carbon nanotubes and sheets of graphene for field-enhanced studies of their physical properties via Raman scattering

* Surface enhanced Raman scattering of suspended graphene sheets as an efficient means to characterize hot spots of plasmonic field enhancement via observation of the associated strain in the vicinity of the metal particle

* Development of a easy methodology to enhance the field enhancement of metallic nano
Exploitation Route * graphene sheets coupled to metallic nanostructures as sensitizers for biochemical sensing
Sectors Chemicals,Other

 
Description Integrated graphene - based sensor devices via scalable microfabrication process development based on graphene - metal multilayer deposition
Amount £1,370,064 (GBP)
Funding ID EP/K016407/1 
Organisation Engineering and Physical Sciences Research Council (EPSRC) 
Sector Academic/University
Country United Kingdom of Great Britain & Northern Ireland (UK)
Start 02/2013 
End 01/2015