The superlinear carrier absorption enhanced silicon MOS micro-ring modulator
The superlinear carrier absorption enhanced silicon MOS micro-ring modulator
We demonstrate superlinear plasma absorption effects in silicon MOS micro-ring modulators, which have been harnessed to enhance the optical modulation depth. Operating speed up to 100 Gbaud with a of BER <1e-6 is achieved.
electro-optic modulators, integrated optoelectronics, optical interconnects, silicon photonics
Zhang, Weiwei
1a783f97-c5ac-49e9-a5a0-49b8b2efab36
Ebert, Martin
1a8f1756-d724-4b44-8504-c01f8dc7aa50
Li, Ke
dd788ca7-0a39-4364-b4b8-65f0bb93340f
Chen, Bigeng
e533448b-095e-4a9f-924c-301f4aa3007b
Yan, Xingzhao
e1f3f636-74e4-42d5-81c7-04feec2b85ba
Du, Han
f68d2391-e6fb-4fbc-bbe0-86ce9a871352
Banakar, Mehdi
ad56fc0a-728c-4abb-8be5-74318bb2758e
Tran, Dehn T.
65bcfeb7-1864-4ad8-bdf3-71bd30006610
Littlejohns, Callum G.
d2837f04-0a83-4bf9-acb2-618aa42a0cad
Scofield, Adam
a7b85128-b9fe-49c8-9b29-7a7e0520f20d
Yu, Guomin
08f4e587-41fc-4a73-b137-1434c9db6598
Shafiiha, Roshanak
77208b62-c6e4-4878-94ed-43e60c862366
Zilkie, Aaron
64f8de79-8a8a-423f-a5a3-9f5dcebea407
Reed, Graham
ca08dd60-c072-4d7d-b254-75714d570139
Thomson, David J.
17c1626c-2422-42c6-98e0-586ae220bcda
7 April 2023
Zhang, Weiwei
1a783f97-c5ac-49e9-a5a0-49b8b2efab36
Ebert, Martin
1a8f1756-d724-4b44-8504-c01f8dc7aa50
Li, Ke
dd788ca7-0a39-4364-b4b8-65f0bb93340f
Chen, Bigeng
e533448b-095e-4a9f-924c-301f4aa3007b
Yan, Xingzhao
e1f3f636-74e4-42d5-81c7-04feec2b85ba
Du, Han
f68d2391-e6fb-4fbc-bbe0-86ce9a871352
Banakar, Mehdi
ad56fc0a-728c-4abb-8be5-74318bb2758e
Tran, Dehn T.
65bcfeb7-1864-4ad8-bdf3-71bd30006610
Littlejohns, Callum G.
d2837f04-0a83-4bf9-acb2-618aa42a0cad
Scofield, Adam
a7b85128-b9fe-49c8-9b29-7a7e0520f20d
Yu, Guomin
08f4e587-41fc-4a73-b137-1434c9db6598
Shafiiha, Roshanak
77208b62-c6e4-4878-94ed-43e60c862366
Zilkie, Aaron
64f8de79-8a8a-423f-a5a3-9f5dcebea407
Reed, Graham
ca08dd60-c072-4d7d-b254-75714d570139
Thomson, David J.
17c1626c-2422-42c6-98e0-586ae220bcda
Zhang, Weiwei, Ebert, Martin, Li, Ke, Chen, Bigeng, Yan, Xingzhao, Du, Han, Banakar, Mehdi, Tran, Dehn T., Littlejohns, Callum G., Scofield, Adam, Yu, Guomin, Shafiiha, Roshanak, Zilkie, Aaron, Reed, Graham and Thomson, David J.
(2023)
The superlinear carrier absorption enhanced silicon MOS micro-ring modulator.
In Proceedings of the 2023 IEEE Silicon Photonics Conference, SiPhotonics 2023.
vol. 2023-April,
IEEE.
2 pp
.
(doi:10.1109/SiPhotonics55903.2023.10141899).
Record type:
Conference or Workshop Item
(Paper)
Abstract
We demonstrate superlinear plasma absorption effects in silicon MOS micro-ring modulators, which have been harnessed to enhance the optical modulation depth. Operating speed up to 100 Gbaud with a of BER <1e-6 is achieved.
This record has no associated files available for download.
More information
Published date: 7 April 2023
Additional Information:
Funding information:
G. T. Reed is a Royal Society Wolfson Merit Award holder and is grateful to both the Royal Society and the Wolfson Foundation for funding the award. D. J. Thomson acknowledges funding from the Royal Society for his University Research Fellowship. This work was supported by EPSRC (EP/R003076/1), (EP/N013247/1); (EP/T019697/1) and European Commission H2020 PICTURE Project (780930).
Venue - Dates:
2023 IEEE Silicon Photonics Conference, SiPhotonics 2023, , Washington, United States, 2023-04-04 - 2023-04-07
Keywords:
electro-optic modulators, integrated optoelectronics, optical interconnects, silicon photonics
Identifiers
Local EPrints ID: 481539
URI: http://eprints.soton.ac.uk/id/eprint/481539
ISSN: 1949-2081
PURE UUID: 3adaaa79-35b8-4be1-9132-42ac0bd2dc4c
Catalogue record
Date deposited: 31 Aug 2023 17:00
Last modified: 17 Mar 2024 13:27
Export record
Altmetrics
Contributors
Author:
Weiwei Zhang
Author:
Martin Ebert
Author:
Ke Li
Author:
Bigeng Chen
Author:
Xingzhao Yan
Author:
Han Du
Author:
Mehdi Banakar
Author:
Dehn T. Tran
Author:
Callum G. Littlejohns
Author:
Adam Scofield
Author:
Guomin Yu
Author:
Roshanak Shafiiha
Author:
Aaron Zilkie
Author:
Graham Reed
Author:
David J. Thomson
Download statistics
Downloads from ePrints over the past year. Other digital versions may also be available to download e.g. from the publisher's website.
View more statistics