Direct UV written optical waveguides in flexible glass flat fiber chips
Direct UV written optical waveguides in flexible glass flat fiber chips
A glass based substrate technology that fills the gap between a truly flexible extended length distributed sensor medium and the multi-functionality of optical chips is demonstrated. Flat Fiber chips will open further degrees of freedom to control the behavior of light via mechanical manipulation. A flexible flat format will also allow straightforward incorporation into smart structures. Coupled with low manufacturing costs, these flexi-chips can also be a key enabler to disposable high-end sensing devices or fully distributed point sensors. In this work, Bragg gratings were used to demonstrate the optical flatness of the Flat Fiber core layer. Furthermore, the effective index values obtained from the grating experiment were input into a dynamic model, subsequently proving the influence of the dumbbell shaped Flat Fiber cross section on the resultant UV written waveguides. Evanescent field sensing was also demonstrated by adopting a stepped Bragg approach.
integrated optics, optical design and fabrication, sensors
1534-1539
Adikan, F.R.Mahamd
c553a74d-67f4-4566-b227-0890bdcb19c3
Sandoghchi, Seyed Reza
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Chong, W.
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Simpson, R.
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Mahdi, M.
eac17495-0366-447d-898e-36be9c5974a7
Webb, Andrew
ec165a7d-68cb-4dc6-8382-b529e217c659
Gates, J.C.
b71e31a1-8caa-477e-8556-b64f6cae0dc2
Holmes, C.
16306bb8-8a46-4fd7-bb19-a146758e5263
September 2012
Adikan, F.R.Mahamd
c553a74d-67f4-4566-b227-0890bdcb19c3
Sandoghchi, Seyed Reza
15499707-d3f2-42f1-90e2-cbe260462487
Chong, W.
f96a93ee-16ac-4be8-864e-f78112cccf2f
Simpson, R.
b6a31f86-795a-4d0d-a519-96e0bfa7c377
Mahdi, M.
eac17495-0366-447d-898e-36be9c5974a7
Webb, Andrew
ec165a7d-68cb-4dc6-8382-b529e217c659
Gates, J.C.
b71e31a1-8caa-477e-8556-b64f6cae0dc2
Holmes, C.
16306bb8-8a46-4fd7-bb19-a146758e5263
Adikan, F.R.Mahamd, Sandoghchi, Seyed Reza, Chong, W., Simpson, R., Mahdi, M., Webb, Andrew, Gates, J.C. and Holmes, C.
(2012)
Direct UV written optical waveguides in flexible glass flat fiber chips.
IEEE Journal of Selected Topics in Quantum Electronics, 18 (5), .
(doi:10.1109/JSTQE.2011.2171921).
Abstract
A glass based substrate technology that fills the gap between a truly flexible extended length distributed sensor medium and the multi-functionality of optical chips is demonstrated. Flat Fiber chips will open further degrees of freedom to control the behavior of light via mechanical manipulation. A flexible flat format will also allow straightforward incorporation into smart structures. Coupled with low manufacturing costs, these flexi-chips can also be a key enabler to disposable high-end sensing devices or fully distributed point sensors. In this work, Bragg gratings were used to demonstrate the optical flatness of the Flat Fiber core layer. Furthermore, the effective index values obtained from the grating experiment were input into a dynamic model, subsequently proving the influence of the dumbbell shaped Flat Fiber cross section on the resultant UV written waveguides. Evanescent field sensing was also demonstrated by adopting a stepped Bragg approach.
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e-pub ahead of print date: 13 October 2011
Published date: September 2012
Keywords:
integrated optics, optical design and fabrication, sensors
Organisations:
Optoelectronics Research Centre
Identifiers
Local EPrints ID: 209175
URI: http://eprints.soton.ac.uk/id/eprint/209175
ISSN: 1077-260X
PURE UUID: 577e25d0-e3c4-400b-b755-1ea509314978
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Date deposited: 23 Apr 2012 10:51
Last modified: 30 Nov 2024 02:43
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Contributors
Author:
F.R.Mahamd Adikan
Author:
Seyed Reza Sandoghchi
Author:
W. Chong
Author:
R. Simpson
Author:
M. Mahdi
Author:
Andrew Webb
Author:
J.C. Gates
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