Optical fiber poling by induction: analysis by 2D numerical modeling
Optical fiber poling by induction: analysis by 2D numerical modeling
Since their first demonstration some 25 years ago, thermally poled silica fibers have been used to realize device functions such as electro-optic modulation, switching, polarization-entangled photons, and optical frequency conversion with a number of advantages over bulk free-space components. We have recently developed an innovative induction poling technique that could allow for the development of complex microstructured fiber geometries for highly efficient χ(2)-based device applications. To systematically implement these more advanced poled fiber designs, we report here the development of comprehensive numerical models of the induction poling mechanism itself via two-dimensional (2D) simulations of ion migration and space-charge region formation using finite element analysis.
1700-1703
De Lucia, Francesco
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Huang, Ding
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Corbari, Costantino
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Healy, Noel
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Sazio, Pier-John
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5 April 2016
De Lucia, Francesco
cf9ad28f-b654-4375-90f6-2b60ee0088f3
Huang, Ding
cb366acd-e5c1-405a-aef1-2d8fd835a3ef
Corbari, Costantino
273904e8-5f90-4110-bc17-3d3f2c27d461
Healy, Noel
26eec85c-8d12-4f21-a67a-022f8dc2daab
Sazio, Pier-John
0d6200b5-9947-469a-8e97-9147da8a7158
De Lucia, Francesco, Huang, Ding, Corbari, Costantino, Healy, Noel and Sazio, Pier-John
(2016)
Optical fiber poling by induction: analysis by 2D numerical modeling.
Optics Letters, 41 (8), .
(doi:10.1364/OL.41.001700).
Abstract
Since their first demonstration some 25 years ago, thermally poled silica fibers have been used to realize device functions such as electro-optic modulation, switching, polarization-entangled photons, and optical frequency conversion with a number of advantages over bulk free-space components. We have recently developed an innovative induction poling technique that could allow for the development of complex microstructured fiber geometries for highly efficient χ(2)-based device applications. To systematically implement these more advanced poled fiber designs, we report here the development of comprehensive numerical models of the induction poling mechanism itself via two-dimensional (2D) simulations of ion migration and space-charge region formation using finite element analysis.
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More information
Accepted/In Press date: 10 March 2016
e-pub ahead of print date: 16 March 2016
Published date: 5 April 2016
Organisations:
Optoelectronics Research Centre
Identifiers
Local EPrints ID: 390666
URI: http://eprints.soton.ac.uk/id/eprint/390666
ISSN: 0146-9592
PURE UUID: 9254ddd2-f6ee-4652-890c-7b6d92e64451
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Date deposited: 23 May 2016 14:14
Last modified: 15 Mar 2024 05:27
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Contributors
Author:
Francesco De Lucia
Author:
Ding Huang
Author:
Costantino Corbari
Author:
Noel Healy
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