Continuous phase stabilization and active interferometer control using two modes

We present a computer-based active interferometer stabilization method that can be set to an arbitrary phase difference and does not rely on modulation of the interfering beams. The scheme utilizes two orthogonal modes propagating through the interferometer with a constant phase difference between t...

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Main Authors: Jotzu, G, Bartley, T, Coldenstrodt-Ronge, H, Smith, B, Walmsley, I
Format: Journal article
Language:English
Published: 2012
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author Jotzu, G
Bartley, T
Coldenstrodt-Ronge, H
Smith, B
Walmsley, I
author_facet Jotzu, G
Bartley, T
Coldenstrodt-Ronge, H
Smith, B
Walmsley, I
author_sort Jotzu, G
collection OXFORD
description We present a computer-based active interferometer stabilization method that can be set to an arbitrary phase difference and does not rely on modulation of the interfering beams. The scheme utilizes two orthogonal modes propagating through the interferometer with a constant phase difference between them to extract a common relative phase and generate a linear feedback signal. Switching times of 50ms over a range of 0-6π radians at 632.8 nm are experimentally demonstrated. The relative interferometer phase can be stabilized up to several days to within ± 3°. © 2011 Copyright Taylor and Francis Group, LLC.
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spelling oxford-uuid:97e1bbbe-8c55-4c15-bbc1-db319469185d2022-03-27T00:03:03ZContinuous phase stabilization and active interferometer control using two modesJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:97e1bbbe-8c55-4c15-bbc1-db319469185dEnglishSymplectic Elements at Oxford2012Jotzu, GBartley, TColdenstrodt-Ronge, HSmith, BWalmsley, IWe present a computer-based active interferometer stabilization method that can be set to an arbitrary phase difference and does not rely on modulation of the interfering beams. The scheme utilizes two orthogonal modes propagating through the interferometer with a constant phase difference between them to extract a common relative phase and generate a linear feedback signal. Switching times of 50ms over a range of 0-6π radians at 632.8 nm are experimentally demonstrated. The relative interferometer phase can be stabilized up to several days to within ± 3°. © 2011 Copyright Taylor and Francis Group, LLC.
spellingShingle Jotzu, G
Bartley, T
Coldenstrodt-Ronge, H
Smith, B
Walmsley, I
Continuous phase stabilization and active interferometer control using two modes
title Continuous phase stabilization and active interferometer control using two modes
title_full Continuous phase stabilization and active interferometer control using two modes
title_fullStr Continuous phase stabilization and active interferometer control using two modes
title_full_unstemmed Continuous phase stabilization and active interferometer control using two modes
title_short Continuous phase stabilization and active interferometer control using two modes
title_sort continuous phase stabilization and active interferometer control using two modes
work_keys_str_mv AT jotzug continuousphasestabilizationandactiveinterferometercontrolusingtwomodes
AT bartleyt continuousphasestabilizationandactiveinterferometercontrolusingtwomodes
AT coldenstrodtrongeh continuousphasestabilizationandactiveinterferometercontrolusingtwomodes
AT smithb continuousphasestabilizationandactiveinterferometercontrolusingtwomodes
AT walmsleyi continuousphasestabilizationandactiveinterferometercontrolusingtwomodes