Optical fiber poling by induction
Optical fiber poling by induction
Conventional thermal poling methods require direct physical contact to internal fiber electrodes. Here, we report an indirect electrostatic induction technique using electrically floating wires inside the fiber combined with external electric fields that can allow for facile poling of complex microstructured fibers (MOFs) of arbitrarily long lengths. In combination with our unique ability to use liquid gallium electrodes, inducing second-order nonlinearities inside otherwise difficult to access multi-core or multi-hole MOFs now becomes entirely feasible and practical. The formation of a permanent second-order nonlinearity is unequivocally demonstrated by realizing quasi-phase-matched frequency doublers using periodic UV erasure methods in the induction-poled fibers. The second-order susceptibility created inside the fiber is driven by the potential difference established between the floating electrodes, which we calculate via numerical simulations.
6513-6516
De Lucia, F.
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Huang, D.
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Corbari, C.
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Healy, N.
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Sazio, P.J.A.
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12 November 2014
De Lucia, F.
cf9ad28f-b654-4375-90f6-2b60ee0088f3
Huang, D.
5dfffea9-215a-4ad4-bdf1-87361aace961
Corbari, C.
0d97e1c1-7a62-47c6-8f97-735f7946f93f
Healy, N.
26eec85c-8d12-4f21-a67a-022f8dc2daab
Sazio, P.J.A.
0d6200b5-9947-469a-8e97-9147da8a7158
De Lucia, F., Huang, D., Corbari, C., Healy, N. and Sazio, P.J.A.
(2014)
Optical fiber poling by induction.
Optics Letters, 39 (22), .
(doi:10.1364/OL.39.006513).
Abstract
Conventional thermal poling methods require direct physical contact to internal fiber electrodes. Here, we report an indirect electrostatic induction technique using electrically floating wires inside the fiber combined with external electric fields that can allow for facile poling of complex microstructured fibers (MOFs) of arbitrarily long lengths. In combination with our unique ability to use liquid gallium electrodes, inducing second-order nonlinearities inside otherwise difficult to access multi-core or multi-hole MOFs now becomes entirely feasible and practical. The formation of a permanent second-order nonlinearity is unequivocally demonstrated by realizing quasi-phase-matched frequency doublers using periodic UV erasure methods in the induction-poled fibers. The second-order susceptibility created inside the fiber is driven by the potential difference established between the floating electrodes, which we calculate via numerical simulations.
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e-pub ahead of print date: 12 November 2014
Published date: 12 November 2014
Organisations:
Optoelectronics Research Centre
Identifiers
Local EPrints ID: 372126
URI: http://eprints.soton.ac.uk/id/eprint/372126
ISSN: 0146-9592
PURE UUID: 815a241b-32f6-4eb6-8eb6-094ffc428beb
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Date deposited: 02 Dec 2014 10:45
Last modified: 15 Mar 2024 03:13
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Contributors
Author:
F. De Lucia
Author:
D. Huang
Author:
C. Corbari
Author:
N. Healy
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