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Vibration Sensitivity of Optical Components: A Survey
Published
Author(s)
Archita Hati, Craig W. Nelson, David A. Howe
Abstract
We propose and demonstrate a novel technique to measure the vibration sensitivity of two-port fiber-based optical components. It uses a common-arm counter-propagating frequency-shifted interferometer that cancels the vibration induced phase noise of the interconnecting fibers feeding the signal to and from the vibrating device under test. The noise introduced by the vibrating fibers can be excessive and measurements of a given device cannot be made with assurance. The proposed technique improves the vibration induced phase noise floor by more than 30 dB compared to a conventional frequency-shifted Mach-Zehnder interferometer and allows measurement of low vibration sensitive devices. A phase sensitivity of 1 mrad/g at 192 THz is achieved with this method. We also present results of vibration sensitivity of an assortment of commonly used fiber-based optical devices.
Proceedings Title
Proceedings of the 2011 Joint IEEE International Frequency Control Symposium and European Frequency and Time Forum
Hati, A.
, Nelson, C.
and Howe, D.
(2011),
Vibration Sensitivity of Optical Components: A Survey, Proceedings of the 2011 Joint IEEE International Frequency Control Symposium and European Frequency and Time Forum, San Francisco, CA
(Accessed October 18, 2025)