High-frequency nano-optomechanical disk resonators in liquids

Gil-Santos, E., Baker, C., Nguyen, D. T., Hease, W., Gomez, C., Lemaitre, A., Ducci, S., Leo, G. and Favero, I. (2015) High-frequency nano-optomechanical disk resonators in liquids. Nature Nanotechnology, 10 9: 810-816. doi:10.1038/nnano.2015.160

Author Gil-Santos, E.
Baker, C.
Nguyen, D. T.
Hease, W.
Gomez, C.
Lemaitre, A.
Ducci, S.
Leo, G.
Favero, I.
Title High-frequency nano-optomechanical disk resonators in liquids
Journal name Nature Nanotechnology   Check publisher's open access policy
ISSN 1748-3387
Publication date 2015-09-03
Year available 2015
Sub-type Article (original research)
DOI 10.1038/nnano.2015.160
Open Access Status Not Open Access
Volume 10
Issue 9
Start page 810
End page 816
Total pages 7
Place of publication London, United Kingdom
Publisher Nature Publishing Group
Collection year 2016
Language eng
Formatted abstract
Nano- and micromechanical resonators are the subject of research that aims to develop ultrasensitive mass sensors for spectrometry, chemical analysis and biomedical diagnosis. Unfortunately, their merits generally diminish in liquids because of an increased dissipation. The development of faster and lighter miniaturized devices would enable improved performances, provided the dissipation was controlled and novel techniques were available to drive and readout their minute displacement. Here we report a nano-optomechanical approach to this problem using miniature semiconductor disks. These devices combine a mechanical motion at high frequencies (gigahertz and above) with an ultralow mass (picograms) and a moderate dissipation in liquids. We show that high-sensitivity optical measurements allow their Brownian vibrations to be resolved directly, even in the most-dissipative liquids. We investigate their interaction with liquids of arbitrary properties, and analyse measurements in light of new models. Nano-optomechanical disks emerge as probes of rheological information of unprecedented sensitivity and speed, which opens up applications in sensing and fundamental science.
Q-Index Code C1
Q-Index Status Provisional Code
Institutional Status Non-UQ

Document type: Journal Article
Sub-type: Article (original research)
Collections: School of Mathematics and Physics
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Citation counts: TR Web of Science Citation Count  Cited 3 times in Thomson Reuters Web of Science Article | Citations
Scopus Citation Count Cited 7 times in Scopus Article | Citations
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Created: Tue, 24 Nov 2015, 17:08:06 EST by Christopher Baker on behalf of School of Mathematics & Physics