Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons

This research was focused on the thermoluminescence (TL) response of commercially produced single-mode telecommunication optical fibre manufactured by INOCORP (Canada). The fibres were either in the form of pure silica (SiO2) or as SiO2 doped with Ge or Al at concentrations appropriate for total int...

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Main Authors: Ramli, Ahmad Termizi, Hashim, Suhairul, Bradley, D. A., Wagiran, Husin, Webb, M., Jeynes, C.
Format: Article
Published: Academy of Sciences Malaysia 2010
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Online Access:http://eprints.utm.my/id/eprint/37892/
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spelling my.utm.378922017-10-25T04:26:41Z http://eprints.utm.my/id/eprint/37892/ Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons Ramli, Ahmad Termizi Hashim, Suhairul Bradley, D. A. Wagiran, Husin Webb, M. Jeynes, C. QC Physics This research was focused on the thermoluminescence (TL) response of commercially produced single-mode telecommunication optical fibre manufactured by INOCORP (Canada). The fibres were either in the form of pure silica (SiO2) or as SiO2 doped with Ge or Al at concentrations appropriate for total internal reflection, as required for telecommunication purposes. Each of these INOCORP fibres had a core diameter of 125 ± 0.1 µm. It was noted that dopant concentration was not included among the data provided in the accompanying product data sheet. A particularly important parameter for obtaining the highest TL yield in this study was the dopant concentration of the SiO2 fibre. The dopants tended to diffuse during the production of the optical fibre. To obtain this parameter, proton induced X-ray emission (PIXE) analysis was utilised. PIXE while having limited depth resolution could unambiguously identify elements and analyse trace elements with a detection limit approaching µg g–1. For Al-doped fibres, dopant concentrations in the range of 0.98 – 2.93 mol% had been estimated, the equivalent range for Ge-doped fibres was 0.53 – 0.71 mol%. A linear dose response was observed following 2.5 MeV proton irradiation for Ge- and Al-doped fibres for up to 7 min exposure. Academy of Sciences Malaysia 2010 Article PeerReviewed Ramli, Ahmad Termizi and Hashim, Suhairul and Bradley, D. A. and Wagiran, Husin and Webb, M. and Jeynes, C. (2010) Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons. ASM Science Journal, 4 (1). pp. 15-21. ISSN 1823-6782
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
topic QC Physics
spellingShingle QC Physics
Ramli, Ahmad Termizi
Hashim, Suhairul
Bradley, D. A.
Wagiran, Husin
Webb, M.
Jeynes, C.
Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons
description This research was focused on the thermoluminescence (TL) response of commercially produced single-mode telecommunication optical fibre manufactured by INOCORP (Canada). The fibres were either in the form of pure silica (SiO2) or as SiO2 doped with Ge or Al at concentrations appropriate for total internal reflection, as required for telecommunication purposes. Each of these INOCORP fibres had a core diameter of 125 ± 0.1 µm. It was noted that dopant concentration was not included among the data provided in the accompanying product data sheet. A particularly important parameter for obtaining the highest TL yield in this study was the dopant concentration of the SiO2 fibre. The dopants tended to diffuse during the production of the optical fibre. To obtain this parameter, proton induced X-ray emission (PIXE) analysis was utilised. PIXE while having limited depth resolution could unambiguously identify elements and analyse trace elements with a detection limit approaching µg g–1. For Al-doped fibres, dopant concentrations in the range of 0.98 – 2.93 mol% had been estimated, the equivalent range for Ge-doped fibres was 0.53 – 0.71 mol%. A linear dose response was observed following 2.5 MeV proton irradiation for Ge- and Al-doped fibres for up to 7 min exposure.
format Article
author Ramli, Ahmad Termizi
Hashim, Suhairul
Bradley, D. A.
Wagiran, Husin
Webb, M.
Jeynes, C.
author_facet Ramli, Ahmad Termizi
Hashim, Suhairul
Bradley, D. A.
Wagiran, Husin
Webb, M.
Jeynes, C.
author_sort Ramli, Ahmad Termizi
title Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons
title_short Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons
title_full Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons
title_fullStr Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons
title_full_unstemmed Ion beam elemental analysis of doped Si02 optical fibre and its thermoluminescence response when irradiated with protons
title_sort ion beam elemental analysis of doped si02 optical fibre and its thermoluminescence response when irradiated with protons
publisher Academy of Sciences Malaysia
publishDate 2010
url http://eprints.utm.my/id/eprint/37892/
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