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Photonic Chip-Based Simultaneous Multi-Impairment Monitoring for Phase-Modulated Optical Signals

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dc.contributor.authorVo, Trung D.
dc.contributor.authorSchroder, Jochen
dc.contributor.authorPelusi, Mark
dc.contributor.authorMadden, Steve
dc.contributor.authorBulla, Douglas
dc.contributor.authorLuther-Davies, Barry
dc.contributor.authorEggleton, Benjamin J
dc.contributor.authorChoi, Duk-Yong
dc.date.accessioned2015-12-10T22:39:43Z
dc.date.issued2010
dc.date.updated2016-02-24T12:17:20Z
dc.description.abstractWe report the first experimental demonstration of simultaneous multi-impairment monitoring of phase-modulated 40 Gbit/s nonreturn to zero differential phase-shift keying (NRZ-DPSK) and 640 Gbit/s return-to-zero (RZ)-DPSK optical signals. Our approach exploits the femtosecond response time of the Kerr nonlinearity in a centimeter-scale, highly nonlinear, dispersion engineered chalcogenide planar waveguide to perform THz bandwidth RF spectrum analysis. The features observed on the radio-frequency (RF) spectrum are directly utilized to perform simultaneous group velocity dispersion and in-band optical signal-to-noise ratio (SNR) monitoring. We also numerically investigate the measurement accuracy of this monitoring technique, highlighting the advantages, and suitability of the chalcogenide rib waveguide.
dc.identifier.issn0733-8724
dc.identifier.urihttp://hdl.handle.net/1885/57303
dc.publisherInstitute of Electrical and Electronics Engineers (IEEE Inc)
dc.sourceJournal of Lightwave Technology
dc.subjectKeywords: 40-Gbit/s; Chalcogenide rib waveguides; Differential phase-shift keying; Femtosecond response; Highly nonlinear; In-band optical signal-to-noise ratios; Kerr nonlinearity; Measurement accuracy; Monitoring techniques; Non-return to zeros; Optical performan Nonlinear optics; optical performance monitoring (OPM); optical planar waveguides; optical signal processing; spectrum analysis
dc.titlePhotonic Chip-Based Simultaneous Multi-Impairment Monitoring for Phase-Modulated Optical Signals
dc.typeJournal article
local.bibliographicCitation.issue21
local.bibliographicCitation.startpage3176 to 3183
local.contributor.affiliationVo, Trung D., University of Sydney
local.contributor.affiliationSchroder, Jochen, University of Sydney
local.contributor.affiliationPelusi, Mark, University of Sydney
local.contributor.affiliationMadden, Steve, College of Physical and Mathematical Sciences, ANU
local.contributor.affiliationChoi, Duk-Yong, College of Physical and Mathematical Sciences, ANU
local.contributor.affiliationBulla, Douglas, College of Physical and Mathematical Sciences, ANU
local.contributor.affiliationLuther-Davies, Barry, College of Physical and Mathematical Sciences, ANU
local.contributor.affiliationEggleton, Benjamin J, University of Sydney
local.contributor.authoruidMadden, Steve, u4151700
local.contributor.authoruidChoi, Duk-Yong, u4219275
local.contributor.authoruidBulla, Douglas, u4031353
local.contributor.authoruidLuther-Davies, Barry, u7601418
local.description.embargo2037-12-31
local.description.notesImported from ARIES
local.identifier.absfor020504 - Photonics, Optoelectronics and Optical Communications
local.identifier.absseo970102 - Expanding Knowledge in the Physical Sciences
local.identifier.ariespublicationu9912193xPUB394
local.identifier.citationvolume28
local.identifier.doi10.1109/JLT.2010.2083635
local.identifier.scopusID2-s2.0-78149446250
local.identifier.thomsonID000284093100002
local.type.statusPublished Version

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