Modal decomposition of output field for holographic mode field generation in a multimode fiber channel

Recent adaptive holographic equalization experiments in multimode fiber demonstrate the advantage of the rapid reconfiguration speed of the spatial light modulator in mitigating modal dispersion, the principal source of bandwidth limitation in MMF. Despite the suppression of a large number of modes,...

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Główni autorzy: Amphawan, A, O'Brien, D
Format: Journal article
Język:English
Wydane: 2010
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author Amphawan, A
O'Brien, D
author_facet Amphawan, A
O'Brien, D
author_sort Amphawan, A
collection OXFORD
description Recent adaptive holographic equalization experiments in multimode fiber demonstrate the advantage of the rapid reconfiguration speed of the spatial light modulator in mitigating modal dispersion, the principal source of bandwidth limitation in MMF. Despite the suppression of a large number of modes, power modal coupling still manifests within the channel. In this paper, a noninterferometric modal decomposition technique was adapted for quantifying the amount of power modal coupling between the modes, for a holographic equalization experiment with a priori modal electric field input. The derivation of the objective function, simulation of binarized holograms and experimental work on intensity measurements at the MMF output are presented. © 2010 IEEE.
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spelling oxford-uuid:2fe0d651-98d3-49dc-9286-5bb851e168602022-03-26T12:58:09ZModal decomposition of output field for holographic mode field generation in a multimode fiber channelJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:2fe0d651-98d3-49dc-9286-5bb851e16860EnglishSymplectic Elements at Oxford2010Amphawan, AO'Brien, DRecent adaptive holographic equalization experiments in multimode fiber demonstrate the advantage of the rapid reconfiguration speed of the spatial light modulator in mitigating modal dispersion, the principal source of bandwidth limitation in MMF. Despite the suppression of a large number of modes, power modal coupling still manifests within the channel. In this paper, a noninterferometric modal decomposition technique was adapted for quantifying the amount of power modal coupling between the modes, for a holographic equalization experiment with a priori modal electric field input. The derivation of the objective function, simulation of binarized holograms and experimental work on intensity measurements at the MMF output are presented. © 2010 IEEE.
spellingShingle Amphawan, A
O'Brien, D
Modal decomposition of output field for holographic mode field generation in a multimode fiber channel
title Modal decomposition of output field for holographic mode field generation in a multimode fiber channel
title_full Modal decomposition of output field for holographic mode field generation in a multimode fiber channel
title_fullStr Modal decomposition of output field for holographic mode field generation in a multimode fiber channel
title_full_unstemmed Modal decomposition of output field for holographic mode field generation in a multimode fiber channel
title_short Modal decomposition of output field for holographic mode field generation in a multimode fiber channel
title_sort modal decomposition of output field for holographic mode field generation in a multimode fiber channel
work_keys_str_mv AT amphawana modaldecompositionofoutputfieldforholographicmodefieldgenerationinamultimodefiberchannel
AT obriend modaldecompositionofoutputfieldforholographicmodefieldgenerationinamultimodefiberchannel