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Detection of back-scattered signal for optical fibre resonant scanner

We report the development of optical fibre resonant scanner that was developed using two multi-mode optical fibres that are attached side-by-side, producing a cantilevered optical fibre scanner. The optical fibre is mounted on photodiode and a small piezoelectric disk using polymer. The piezoelect...

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Main Authors: Juwadi Prak Ser,, Lee, Chia Cheng, Farah Shahrim,, Ahmad Ashrif A Bakar,, M. H. H. Mokhtar,
Format: Article
Language:English
Published: Penerbit Universiti Kebangsaan Malaysia 2019
Online Access:http://journalarticle.ukm.my/14313/1/21.pdf
http://journalarticle.ukm.my/14313/
http://www.ukm.my/jkukm/volume-311-2019/
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spelling my-ukm.journal.143132020-02-26T06:24:09Z http://journalarticle.ukm.my/14313/ Detection of back-scattered signal for optical fibre resonant scanner Juwadi Prak Ser, Lee, Chia Cheng Farah Shahrim, Ahmad Ashrif A Bakar, M. H. H. Mokhtar, We report the development of optical fibre resonant scanner that was developed using two multi-mode optical fibres that are attached side-by-side, producing a cantilevered optical fibre scanner. The optical fibre is mounted on photodiode and a small piezoelectric disk using polymer. The piezoelectric disk is driven with a sinusoidal signal that will then vibrate the mounted optical fibre, producing a single axis scan line. This paper reports on experimental detection of the back-scattered signal through dual-numerical aperture conFigureuration and identification of fibre position from a single scan line with respect to the optical reflections from the apertured reflector. The apertured reflector used was a brass metal with 1 mm of diameter that is placed before the imaging lens as a mechanism to differentiate the position of scan line. The single scan was obtained at its maximum length of 4.8mm with resonant frequency of 2.033kHz. The back-scattered signal from a target object is coupled back into the cladding of the optical fibre. The cladding mode is then stripped and detected by photodiode. The back scattered signal from the aperture is used to differentiate the position of fibre between the aperture and the target object itself. Differences in the position of the slots resulted pulses with different height and width, allowing the two backscattered signals to be distinguished. The experimental result is verified and compared with the theory back-scattered signal produced by such scanner. Penerbit Universiti Kebangsaan Malaysia 2019-04 Article PeerReviewed application/pdf en http://journalarticle.ukm.my/14313/1/21.pdf Juwadi Prak Ser, and Lee, Chia Cheng and Farah Shahrim, and Ahmad Ashrif A Bakar, and M. H. H. Mokhtar, (2019) Detection of back-scattered signal for optical fibre resonant scanner. Jurnal Kejuruteraan, 31 (1). pp. 169-175. ISSN 0128-0198 http://www.ukm.my/jkukm/volume-311-2019/
institution Universiti Kebangsaan Malaysia
building Tun Sri Lanang Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Kebangsaan Malaysia
content_source UKM Journal Article Repository
url_provider http://journalarticle.ukm.my/
language English
description We report the development of optical fibre resonant scanner that was developed using two multi-mode optical fibres that are attached side-by-side, producing a cantilevered optical fibre scanner. The optical fibre is mounted on photodiode and a small piezoelectric disk using polymer. The piezoelectric disk is driven with a sinusoidal signal that will then vibrate the mounted optical fibre, producing a single axis scan line. This paper reports on experimental detection of the back-scattered signal through dual-numerical aperture conFigureuration and identification of fibre position from a single scan line with respect to the optical reflections from the apertured reflector. The apertured reflector used was a brass metal with 1 mm of diameter that is placed before the imaging lens as a mechanism to differentiate the position of scan line. The single scan was obtained at its maximum length of 4.8mm with resonant frequency of 2.033kHz. The back-scattered signal from a target object is coupled back into the cladding of the optical fibre. The cladding mode is then stripped and detected by photodiode. The back scattered signal from the aperture is used to differentiate the position of fibre between the aperture and the target object itself. Differences in the position of the slots resulted pulses with different height and width, allowing the two backscattered signals to be distinguished. The experimental result is verified and compared with the theory back-scattered signal produced by such scanner.
format Article
author Juwadi Prak Ser,
Lee, Chia Cheng
Farah Shahrim,
Ahmad Ashrif A Bakar,
M. H. H. Mokhtar,
spellingShingle Juwadi Prak Ser,
Lee, Chia Cheng
Farah Shahrim,
Ahmad Ashrif A Bakar,
M. H. H. Mokhtar,
Detection of back-scattered signal for optical fibre resonant scanner
author_facet Juwadi Prak Ser,
Lee, Chia Cheng
Farah Shahrim,
Ahmad Ashrif A Bakar,
M. H. H. Mokhtar,
author_sort Juwadi Prak Ser,
title Detection of back-scattered signal for optical fibre resonant scanner
title_short Detection of back-scattered signal for optical fibre resonant scanner
title_full Detection of back-scattered signal for optical fibre resonant scanner
title_fullStr Detection of back-scattered signal for optical fibre resonant scanner
title_full_unstemmed Detection of back-scattered signal for optical fibre resonant scanner
title_sort detection of back-scattered signal for optical fibre resonant scanner
publisher Penerbit Universiti Kebangsaan Malaysia
publishDate 2019
url http://journalarticle.ukm.my/14313/1/21.pdf
http://journalarticle.ukm.my/14313/
http://www.ukm.my/jkukm/volume-311-2019/
_version_ 1662755951898263552
score 13.211869

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