Injection locking of an electro-optomechanical device

Bekker, Christiaan, Kalra, Rachpon, Baker, Christopher and Bowen, Warwick P. (2017) Injection locking of an electro-optomechanical device. Optica, 4 10: 1196-1204. doi:10.1364/OPTICA.4.001196


Author Bekker, Christiaan
Kalra, Rachpon
Baker, Christopher
Bowen, Warwick P.
Title Injection locking of an electro-optomechanical device
Journal name Optica   Check publisher's open access policy
ISSN 2334-2536
Publication date 2017-10-01
Year available 2017
Sub-type Article (original research)
DOI 10.1364/OPTICA.4.001196
Open Access Status DOI
Volume 4
Issue 10
Start page 1196
End page 1204
Total pages 9
Place of publication Washington, DC, United States
Publisher Optical Society of America
Language eng
Subject 2504 Electronic, Optical and Magnetic Materials
3107 Atomic and Molecular Physics, and Optics
Abstract Advances in optomechanics have enabled significant achievements in precision sensing and control of matter, including detection of gravitational waves and cooling of mechanical systems to their quantum ground states. Recently, the inherent nonlinearity in the optomechanical interaction has been harnessed to explore synchronization effects, including the spontaneous locking of an oscillator to a reference injection signal delivered via the optical field. Here, we present, to the best of our knowledge, the first demonstration of a radiation-pressure-driven optomechanical system locking to an inertial drive, with actuation provided by an integrated electrical interface. We use the injection signal to suppress the drift in the optomechanical oscillation frequency, strongly reducing phase noise by over 55 dBc/Hz at 2 Hz offset. We further employ the injection tone to tune the oscillation frequency by more than 2 million times its narrowed linewidth. In addition, we uncover previously unreported synchronization dynamics, enabled by the independence of the inertial drive from the optical drive field. Finally, we show that our approach may enable control of the optomechanical gain competition between different mechanical modes of a single resonator. The electrical interface allows enhanced scalability for future applications involving arrays of injection-locked precision sensors. (C) 2017 Optical Society of America
Keyword Quantum ground states
Oscillators
Resonators
Motion
Q-Index Code C1
Q-Index Status Provisional Code
Grant ID CE110001013
UQFEL1719237
Institutional Status UQ

Document type: Journal Article
Sub-type: Article (original research)
Collections: School of Mathematics and Physics
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Created: Wed, 08 Nov 2017, 09:09:58 EST by Christopher Baker on behalf of Learning and Research Services (UQ Library)