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Manufacturing of GLS-Se glass rods and structured preforms by extrusion for optical fiber drawing for the IR region

Manufacturing of GLS-Se glass rods and structured preforms by extrusion for optical fiber drawing for the IR region
Manufacturing of GLS-Se glass rods and structured preforms by extrusion for optical fiber drawing for the IR region

Chalcogenide glasses are amorphous solid materials formed from chalcogen elements bonding with metals to form typically in binary or tertiary compounds. One family of chalcogenide glasses, based on gallium and lanthanum sulphides, possesses properties important for the infrared (IR) window transmissions and IR applications; these include thermal stability, high solubility of rare earth ions, low phonon energy and high laser damage threshold. Efforts have been made to produce new chalcogenide glasses that can extend the IR transmission window further into the IR. Work has led to the successful melting of a selenium-modified gallium lanthanum sulphide (GLS-Se) glass that can transmit up to 15 μm, however these glasses have, to date, only been demonstrated in bulk glass form. We aim to develop processes for the fabrication of chalcogenide optical fiber to exploit the properties of chalcogenide glasses. Several potential applications include sensing for the civil, medical, and military areas, as these materials offer transmission over much of the molecular fingerprint region (2 to 25 μm). The aim of our work is to understand and control the thermal properties and stability of GLS-Se glasses without compromising their optical properties, in order to produce transparent glass rods and demonstrate the feasibility in fabrication for structured optical preforms by extrusion, as the first step to achieve optical fiber from GLS-Se glass.

chalcogenide, extrusion, glass, infrared, manufacturing, preform
0091-3286
Guzman Cruz, Fernando
9f3ca370-c2be-4a9f-b3ae-c9c746f72a26
Craig, Christopher
2328b42b-552e-4a82-941d-45449e952f10
Moog, Bruno Jean
084c90d1-cfac-453e-96e6-4b2316d91c17
Ravagli, Andrea
36bc59df-8134-42d1-9871-bcf7bab6539a
Morgan, Katrina
2b9605fc-ac61-4ae7-b5f1-b6e3d257701d
Hewak, Daniel
87c80070-c101-4f7a-914f-4cc3131e3db0
Guzman Cruz, Fernando
9f3ca370-c2be-4a9f-b3ae-c9c746f72a26
Craig, Christopher
2328b42b-552e-4a82-941d-45449e952f10
Moog, Bruno Jean
084c90d1-cfac-453e-96e6-4b2316d91c17
Ravagli, Andrea
36bc59df-8134-42d1-9871-bcf7bab6539a
Morgan, Katrina
2b9605fc-ac61-4ae7-b5f1-b6e3d257701d
Hewak, Daniel
87c80070-c101-4f7a-914f-4cc3131e3db0

Guzman Cruz, Fernando, Craig, Christopher, Moog, Bruno Jean, Ravagli, Andrea, Morgan, Katrina and Hewak, Daniel (2021) Manufacturing of GLS-Se glass rods and structured preforms by extrusion for optical fiber drawing for the IR region. Optical Engineering, 60 (4), [045101]. (doi:10.1117/1.OE.60.4.045101).

Record type: Article

Abstract

Chalcogenide glasses are amorphous solid materials formed from chalcogen elements bonding with metals to form typically in binary or tertiary compounds. One family of chalcogenide glasses, based on gallium and lanthanum sulphides, possesses properties important for the infrared (IR) window transmissions and IR applications; these include thermal stability, high solubility of rare earth ions, low phonon energy and high laser damage threshold. Efforts have been made to produce new chalcogenide glasses that can extend the IR transmission window further into the IR. Work has led to the successful melting of a selenium-modified gallium lanthanum sulphide (GLS-Se) glass that can transmit up to 15 μm, however these glasses have, to date, only been demonstrated in bulk glass form. We aim to develop processes for the fabrication of chalcogenide optical fiber to exploit the properties of chalcogenide glasses. Several potential applications include sensing for the civil, medical, and military areas, as these materials offer transmission over much of the molecular fingerprint region (2 to 25 μm). The aim of our work is to understand and control the thermal properties and stability of GLS-Se glasses without compromising their optical properties, in order to produce transparent glass rods and demonstrate the feasibility in fabrication for structured optical preforms by extrusion, as the first step to achieve optical fiber from GLS-Se glass.

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OE-20210027_online - Accepted Manuscript
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Published date: 8 April 2021
Additional Information: Funding Information: We acknowledge the contribution of Ed Weatherby for technical support, Nick White for assistance with extrusion, and Paul Frampton for providing glass blowing. This work was sponsored in part by Consejo Nacional de Ciencia y Tecnología (CONACyT) (Award No. 739108) and the Faculty of Physical Sciences and Engineering, Southampton. Chalcogenide glass research at Southampton is also supported through the Engineering and Physical Sciences Research Council (EPSRC) through research Grant EP/M015130/1, Manufacturing and Application of Next Generation Chalcogenides. The authors declare no conflicts of interest. Publisher Copyright: © 2021 Society of Photo-Optical Instrumentation Engineers (SPIE).
Keywords: chalcogenide, extrusion, glass, infrared, manufacturing, preform

Identifiers

Local EPrints ID: 448413
URI: http://eprints.soton.ac.uk/id/eprint/448413
ISSN: 0091-3286
PURE UUID: bed967f9-3ab7-457c-a89b-3ea2309ae027
ORCID for Fernando Guzman Cruz: ORCID iD orcid.org/0000-0002-8096-3805
ORCID for Christopher Craig: ORCID iD orcid.org/0000-0001-6919-4294
ORCID for Katrina Morgan: ORCID iD orcid.org/0000-0002-8600-4322
ORCID for Daniel Hewak: ORCID iD orcid.org/0000-0002-2093-5773

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Date deposited: 21 Apr 2021 16:35
Last modified: 06 Jun 2024 01:50

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Contributors

Author: Fernando Guzman Cruz ORCID iD
Author: Christopher Craig ORCID iD
Author: Bruno Jean Moog
Author: Andrea Ravagli
Author: Katrina Morgan ORCID iD
Author: Daniel Hewak ORCID iD

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