We propose a route for the rational design of engineered graphene-based nanostructures, which feature enormously enhanced electric fields in their proximity. Geometrical arrangements are inspired by nanopatterns allowing single molecule detection on noble metal substrates, and are conceived to take into account experimental feasibility and ease in fabrication processes. The attention is especially focused on enhancement effects occurring close to edge defects and grain boundaries, which are usually present in graphene samples. There, very localized hot-spots are created, with enhancement factors comparable to noble metal substrates, thus potentially paving the way for single molecule detection from graphene-based substrates.

Bonatti, L., Nicoli, L., Giovannini, T., Cappelli, C. (2022). In silico design of graphene plasmonic hot-spots. NANOSCALE ADVANCES, 4(10), 2294-2302 [10.1039/D2NA00088A].

In silico design of graphene plasmonic hot-spots

Giovannini, Tommaso
;
2022-01-01

Abstract

We propose a route for the rational design of engineered graphene-based nanostructures, which feature enormously enhanced electric fields in their proximity. Geometrical arrangements are inspired by nanopatterns allowing single molecule detection on noble metal substrates, and are conceived to take into account experimental feasibility and ease in fabrication processes. The attention is especially focused on enhancement effects occurring close to edge defects and grain boundaries, which are usually present in graphene samples. There, very localized hot-spots are created, with enhancement factors comparable to noble metal substrates, thus potentially paving the way for single molecule detection from graphene-based substrates.
2022
Pubblicato
Rilevanza internazionale
Articolo
Esperti anonimi
Settore PHYS-04/A - Fisica teorica della materia, modelli, metodi matematici e applicazioni
Settore CHEM-02/A - Chimica fisica
English
Con Impact Factor ISI
Bonatti, L., Nicoli, L., Giovannini, T., Cappelli, C. (2022). In silico design of graphene plasmonic hot-spots. NANOSCALE ADVANCES, 4(10), 2294-2302 [10.1039/D2NA00088A].
Bonatti, L; Nicoli, L; Giovannini, T; Cappelli, C
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/2108/393263
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