Generation and detection of surface acoustic waves using single plasmonic nanoresonators
We show in this work that coherent phonons generated after the decay of optically-excited plasmons in isolated metallic nanoantennas, are transmitted through the substrate as surface acoustic waves (SAWs) which can be detected by other nanoantennas used as receptors and positioned at distances up to...
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Acceso en línea: | http://hdl.handle.net/20.500.12110/paper_97819435_vPartF123-LAOP2018_n_p_Berte |
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todo:paper_97819435_vPartF123-LAOP2018_n_p_Berte2023-10-03T16:44:46Z Generation and detection of surface acoustic waves using single plasmonic nanoresonators Berte, R. Picca, F.D. Poblet, M. Li, Y. Cortés, E. Craster, R.V. Maier, S.A. Bragas, A.V. Acoustic surface wave devices Fused silica Nanoantennas Numerical methods Photonics Plasmonics Plasmons Probes Vibrations (mechanical) Coherent phonons Decay characteristics Mechanical excitations Optical response Pump-probe technique Spectral content Surface acoustic waves Vibrational modes Acoustic waves We show in this work that coherent phonons generated after the decay of optically-excited plasmons in isolated metallic nanoantennas, are transmitted through the substrate as surface acoustic waves (SAWs) which can be detected by other nanoantennas used as receptors and positioned at distances up to 3μm away from the source. Two color sub-ps pump-probe technique and numerical methods suggest wave speed and amplitude decay characteristic of Rayleigh waves, the former within 3.2% of the predicted for fused silica. It is also shown that the mechanical excitation of the receptors via SAW modulates the optical response of the probe transmission and that its spectral content shows that the detection is feasible, even when the vibrational modes of the receptor are detuned from those of the source. © 2018 The Author (s). CONF info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_97819435_vPartF123-LAOP2018_n_p_Berte |
institution |
Universidad de Buenos Aires |
institution_str |
I-28 |
repository_str |
R-134 |
collection |
Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA) |
topic |
Acoustic surface wave devices Fused silica Nanoantennas Numerical methods Photonics Plasmonics Plasmons Probes Vibrations (mechanical) Coherent phonons Decay characteristics Mechanical excitations Optical response Pump-probe technique Spectral content Surface acoustic waves Vibrational modes Acoustic waves |
spellingShingle |
Acoustic surface wave devices Fused silica Nanoantennas Numerical methods Photonics Plasmonics Plasmons Probes Vibrations (mechanical) Coherent phonons Decay characteristics Mechanical excitations Optical response Pump-probe technique Spectral content Surface acoustic waves Vibrational modes Acoustic waves Berte, R. Picca, F.D. Poblet, M. Li, Y. Cortés, E. Craster, R.V. Maier, S.A. Bragas, A.V. Generation and detection of surface acoustic waves using single plasmonic nanoresonators |
topic_facet |
Acoustic surface wave devices Fused silica Nanoantennas Numerical methods Photonics Plasmonics Plasmons Probes Vibrations (mechanical) Coherent phonons Decay characteristics Mechanical excitations Optical response Pump-probe technique Spectral content Surface acoustic waves Vibrational modes Acoustic waves |
description |
We show in this work that coherent phonons generated after the decay of optically-excited plasmons in isolated metallic nanoantennas, are transmitted through the substrate as surface acoustic waves (SAWs) which can be detected by other nanoantennas used as receptors and positioned at distances up to 3μm away from the source. Two color sub-ps pump-probe technique and numerical methods suggest wave speed and amplitude decay characteristic of Rayleigh waves, the former within 3.2% of the predicted for fused silica. It is also shown that the mechanical excitation of the receptors via SAW modulates the optical response of the probe transmission and that its spectral content shows that the detection is feasible, even when the vibrational modes of the receptor are detuned from those of the source. © 2018 The Author (s). |
format |
CONF |
author |
Berte, R. Picca, F.D. Poblet, M. Li, Y. Cortés, E. Craster, R.V. Maier, S.A. Bragas, A.V. |
author_facet |
Berte, R. Picca, F.D. Poblet, M. Li, Y. Cortés, E. Craster, R.V. Maier, S.A. Bragas, A.V. |
author_sort |
Berte, R. |
title |
Generation and detection of surface acoustic waves using single plasmonic nanoresonators |
title_short |
Generation and detection of surface acoustic waves using single plasmonic nanoresonators |
title_full |
Generation and detection of surface acoustic waves using single plasmonic nanoresonators |
title_fullStr |
Generation and detection of surface acoustic waves using single plasmonic nanoresonators |
title_full_unstemmed |
Generation and detection of surface acoustic waves using single plasmonic nanoresonators |
title_sort |
generation and detection of surface acoustic waves using single plasmonic nanoresonators |
url |
http://hdl.handle.net/20.500.12110/paper_97819435_vPartF123-LAOP2018_n_p_Berte |
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