Post-processing ZnSe optical fibers with a micro-chemical vapor transport technique
Post-processing ZnSe optical fibers with a micro-chemical vapor transport technique
Polycrystalline zinc selenide optical fibers and fiber lasers are expected to provide powerful capabilities for infrared waveguiding and laser technology. High pressure chemical vapor deposition, which is the only technique currently capable of producing zinc selenide optical fibers, leaves a geometric imperfection in the form of a central pore which is detrimental to mode quality. Chemical vapor transport with large temperature and pressure gradients not only fills this central pore but also encourages polycrystalline grain growth. Increased grain size and a reduction in defects such as twinning are demonstrated with transmission electron microscopy, Raman spectroscopy, and X-ray diffraction, supporting that high-quality material is produced from this method. Finally, the mode structure of the waveguide is improved allowing most of the guided optical intensity to be centrally positioned in the fiber core. Loss as low as 0.22 dB/cm at 1908nm is demonstrated as a result of the material improvement.
3125-3136
Hendrickson, Alex T.
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Aro, Stephen C.
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Sparks, Justin R.
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Coco, Michael G.
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Krug, James P.
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Mathewson, Carly J.
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McDaniel, Sean A.
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Sazio, Pier J.
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Cook, Gary
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Gopalan, Venkatraman
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Badding, John V.
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1 December 2020
Hendrickson, Alex T.
a96221e4-c9c0-4221-8a2c-aa60a0c3a9ed
Aro, Stephen C.
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Sparks, Justin R.
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Coco, Michael G.
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Krug, James P.
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Mathewson, Carly J.
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McDaniel, Sean A.
1a6c4423-c63c-495d-8355-2f7d4f43d591
Sazio, Pier J.
0d6200b5-9947-469a-8e97-9147da8a7158
Cook, Gary
c33461e4-ea73-4b67-bdf8-9940f9c90f75
Gopalan, Venkatraman
c37ec093-614a-4b1c-a6ec-a5b32f398a58
Badding, John V.
dd484978-a8b8-4d1f-9b9e-b6b33bde9e7b
Hendrickson, Alex T., Aro, Stephen C., Sparks, Justin R., Coco, Michael G., Krug, James P., Mathewson, Carly J., McDaniel, Sean A., Sazio, Pier J., Cook, Gary, Gopalan, Venkatraman and Badding, John V.
(2020)
Post-processing ZnSe optical fibers with a micro-chemical vapor transport technique.
Optical Materials Express, 10 (12), .
(doi:10.1364/OME.404700).
Abstract
Polycrystalline zinc selenide optical fibers and fiber lasers are expected to provide powerful capabilities for infrared waveguiding and laser technology. High pressure chemical vapor deposition, which is the only technique currently capable of producing zinc selenide optical fibers, leaves a geometric imperfection in the form of a central pore which is detrimental to mode quality. Chemical vapor transport with large temperature and pressure gradients not only fills this central pore but also encourages polycrystalline grain growth. Increased grain size and a reduction in defects such as twinning are demonstrated with transmission electron microscopy, Raman spectroscopy, and X-ray diffraction, supporting that high-quality material is produced from this method. Finally, the mode structure of the waveguide is improved allowing most of the guided optical intensity to be centrally positioned in the fiber core. Loss as low as 0.22 dB/cm at 1908nm is demonstrated as a result of the material improvement.
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More information
Accepted/In Press date: 14 October 2020
Published date: 1 December 2020
Additional Information:
Air Force Research Laboratory (FA8650-13-2-1615); Penn State MRSEC, Center for Nanoscale Science (NSF DMR-1420620).
Identifiers
Local EPrints ID: 472114
URI: http://eprints.soton.ac.uk/id/eprint/472114
ISSN: 2159-3930
PURE UUID: 3e34cc27-9d48-4ad1-b784-9c4b066efe01
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Date deposited: 25 Nov 2022 17:56
Last modified: 18 Mar 2024 02:55
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Contributors
Author:
Alex T. Hendrickson
Author:
Stephen C. Aro
Author:
Justin R. Sparks
Author:
Michael G. Coco
Author:
James P. Krug
Author:
Carly J. Mathewson
Author:
Sean A. McDaniel
Author:
Gary Cook
Author:
Venkatraman Gopalan
Author:
John V. Badding
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