Numerical modelling on stimulated Brillouin scattering characterization for Graphene-clad tapered silica fiber

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1 Citation (Scopus)

Abstract

This paper presents finite numerical modelling on the cross-sectional region of tapered single mode fiber and graphene-clad tapered fiber. Surface acoustic wave propagation across the tapered surface region on tapered single mode fiber has a high threshold power at 61.87 W which is challenging to overcome by the incident pump wave. Surface acoustic wave propagation of fiber surface however made tapered wave plausible in the optical sensor application. This research introduces graphene as the cladding layer on tapered fiber, acoustic confinement occurs due to the graphene cladding which lowers the threshold power from 61.87 W to 2.17 W.

Original languageEnglish
Article number01029
JournalEPJ Web of Conferences
Volume162
DOIs
Publication statusPublished - 22 Nov 2017
Event2017 International Conference on Applied Photonics and Electronics, InCAPE 2017 - Port Dickson, N. Sembilan, Malaysia
Duration: 09 Aug 201710 Aug 2017

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graphene
silicon dioxide
fibers
scattering
acoustics
wave propagation
thresholds
optical measuring instruments
pumps

All Science Journal Classification (ASJC) codes

  • Physics and Astronomy(all)

Cite this

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title = "Numerical modelling on stimulated Brillouin scattering characterization for Graphene-clad tapered silica fiber",
abstract = "This paper presents finite numerical modelling on the cross-sectional region of tapered single mode fiber and graphene-clad tapered fiber. Surface acoustic wave propagation across the tapered surface region on tapered single mode fiber has a high threshold power at 61.87 W which is challenging to overcome by the incident pump wave. Surface acoustic wave propagation of fiber surface however made tapered wave plausible in the optical sensor application. This research introduces graphene as the cladding layer on tapered fiber, acoustic confinement occurs due to the graphene cladding which lowers the threshold power from 61.87 W to 2.17 W.",
author = "Lee, {Hui Jing} and Fairuz Abdullah and Aiman Ismail",
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AU - Abdullah, Fairuz

AU - Ismail, Aiman

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N2 - This paper presents finite numerical modelling on the cross-sectional region of tapered single mode fiber and graphene-clad tapered fiber. Surface acoustic wave propagation across the tapered surface region on tapered single mode fiber has a high threshold power at 61.87 W which is challenging to overcome by the incident pump wave. Surface acoustic wave propagation of fiber surface however made tapered wave plausible in the optical sensor application. This research introduces graphene as the cladding layer on tapered fiber, acoustic confinement occurs due to the graphene cladding which lowers the threshold power from 61.87 W to 2.17 W.

AB - This paper presents finite numerical modelling on the cross-sectional region of tapered single mode fiber and graphene-clad tapered fiber. Surface acoustic wave propagation across the tapered surface region on tapered single mode fiber has a high threshold power at 61.87 W which is challenging to overcome by the incident pump wave. Surface acoustic wave propagation of fiber surface however made tapered wave plausible in the optical sensor application. This research introduces graphene as the cladding layer on tapered fiber, acoustic confinement occurs due to the graphene cladding which lowers the threshold power from 61.87 W to 2.17 W.

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