Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications
A novel optimized apodization of Fiber Bragg Grating Sensor (FBGS) for quasi-distributed strain sensing applications is developed and introduced in this paper. The main objective of the proposed optimization is to obtain a reflectivity level higher than 90% and a side lobe level around −40 dB, which...
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Online Access: | http://dx.doi.org/10.1155/2016/6523046 |
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doaj-6c0ea68431a347a9b0fb34a13654387b2020-11-25T00:02:48ZengHindawi LimitedActive and Passive Electronic Components0882-75161563-50312016-01-01201610.1155/2016/65230466523046Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement ApplicationsFahd Chaoui0Otman Aghzout1Mounia Chakkour2Mounir El Yakhloufi3Department of Physics, Faculty of Sciences, UAE, Tetouan, MoroccoElectronics & Microwaves Group, Telecommunication Department, ENSA, UAE, Tetouan, MoroccoDepartment of Physics, Faculty of Sciences, UAE, Tetouan, MoroccoCondensed Matter Physics Group, Faculty of Sciences, UAE, Tetouan, MoroccoA novel optimized apodization of Fiber Bragg Grating Sensor (FBGS) for quasi-distributed strain sensing applications is developed and introduced in this paper. The main objective of the proposed optimization is to obtain a reflectivity level higher than 90% and a side lobe level around −40 dB, which is suitable for use in quasi-distributed strain sensing application. For this purpose, different design parameters as apodization profile, grating length, and refractive index have been investigated to enhance and optimize the FBGS design. The performance of the proposed apodization has then been compared in terms of reflectivity, side lobe level (SLL), and full width at half maximum (FWHM) with apodization profiles proposed by other authors. The optimized sensor is integrated on quasi-distributed sensing system of 8 sensors demonstrating high reliability. Wide strain sensitivity range for each channel has also been achieved in the quasi-distributed system. Results prove the efficiency of the proposed optimization which can be further implemented for any quasi-distributed sensing application.http://dx.doi.org/10.1155/2016/6523046 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Fahd Chaoui Otman Aghzout Mounia Chakkour Mounir El Yakhloufi |
spellingShingle |
Fahd Chaoui Otman Aghzout Mounia Chakkour Mounir El Yakhloufi Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications Active and Passive Electronic Components |
author_facet |
Fahd Chaoui Otman Aghzout Mounia Chakkour Mounir El Yakhloufi |
author_sort |
Fahd Chaoui |
title |
Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications |
title_short |
Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications |
title_full |
Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications |
title_fullStr |
Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications |
title_full_unstemmed |
Apodization Optimization of FBG Strain Sensor for Quasi-Distributed Sensing Measurement Applications |
title_sort |
apodization optimization of fbg strain sensor for quasi-distributed sensing measurement applications |
publisher |
Hindawi Limited |
series |
Active and Passive Electronic Components |
issn |
0882-7516 1563-5031 |
publishDate |
2016-01-01 |
description |
A novel optimized apodization of Fiber Bragg Grating Sensor (FBGS) for quasi-distributed strain sensing applications is developed and introduced in this paper. The main objective of the proposed optimization is to obtain a reflectivity level higher than 90% and a side lobe level around −40 dB, which is suitable for use in quasi-distributed strain sensing application. For this purpose, different design parameters as apodization profile, grating length, and refractive index have been investigated to enhance and optimize the FBGS design. The performance of the proposed apodization has then been compared in terms of reflectivity, side lobe level (SLL), and full width at half maximum (FWHM) with apodization profiles proposed by other authors. The optimized sensor is integrated on quasi-distributed sensing system of 8 sensors demonstrating high reliability. Wide strain sensitivity range for each channel has also been achieved in the quasi-distributed system. Results prove the efficiency of the proposed optimization which can be further implemented for any quasi-distributed sensing application. |
url |
http://dx.doi.org/10.1155/2016/6523046 |
work_keys_str_mv |
AT fahdchaoui apodizationoptimizationoffbgstrainsensorforquasidistributedsensingmeasurementapplications AT otmanaghzout apodizationoptimizationoffbgstrainsensorforquasidistributedsensingmeasurementapplications AT mouniachakkour apodizationoptimizationoffbgstrainsensorforquasidistributedsensingmeasurementapplications AT mounirelyakhloufi apodizationoptimizationoffbgstrainsensorforquasidistributedsensingmeasurementapplications |
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1725436526778646528 |