Metropolitan Quantum Key Distribution with Silicon Photonics

Photonic integrated circuits provide a compact and stable platform for quantum photonics. Here we demonstrate a silicon photonics quantum key distribution (QKD) encoder in the first high-speed polarization-based QKD field tests. The systems reach composable secret key rates of 1.039 Mbps in a local...

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Main Authors: Lentine, Anthony, Cai, Hong, Long, Christopher M., Boynton, Nicholas, Martinez, Nicholas, DeRose, Christopher, Grein, Matthew, Trotter, Douglas, Starbuck, Andrew, Pomerene, Andrew, Hamilton, Scott, Davids, Paul, Urayama, Junji, Englund, Dirk, Bunandar, Darius, Lee, Catherine, Chen, Changchen, Wong, Ngai Chuen, Camacho, Ryan
Other Authors: Lincoln Laboratory
Format: Article
Language:English
Published: American Physical Society 2018
Online Access:http://hdl.handle.net/1721.1/114631
https://orcid.org/0000-0002-8218-5656
https://orcid.org/0000-0002-5125-8023
https://orcid.org/0000-0003-1998-6159
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author Lentine, Anthony
Cai, Hong
Long, Christopher M.
Boynton, Nicholas
Martinez, Nicholas
DeRose, Christopher
Grein, Matthew
Trotter, Douglas
Starbuck, Andrew
Pomerene, Andrew
Hamilton, Scott
Davids, Paul
Urayama, Junji
Englund, Dirk
Bunandar, Darius
Lee, Catherine
Chen, Changchen
Wong, Ngai Chuen
Camacho, Ryan
author2 Lincoln Laboratory
author_facet Lincoln Laboratory
Lentine, Anthony
Cai, Hong
Long, Christopher M.
Boynton, Nicholas
Martinez, Nicholas
DeRose, Christopher
Grein, Matthew
Trotter, Douglas
Starbuck, Andrew
Pomerene, Andrew
Hamilton, Scott
Davids, Paul
Urayama, Junji
Englund, Dirk
Bunandar, Darius
Lee, Catherine
Chen, Changchen
Wong, Ngai Chuen
Camacho, Ryan
author_sort Lentine, Anthony
collection MIT
description Photonic integrated circuits provide a compact and stable platform for quantum photonics. Here we demonstrate a silicon photonics quantum key distribution (QKD) encoder in the first high-speed polarization-based QKD field tests. The systems reach composable secret key rates of 1.039 Mbps in a local test (on a 103.6-m fiber with a total emulated loss of 9.2 dB) and 157 kbps in an intercity metropolitan test (on a 43-km fiber with 16.4 dB loss). Our results represent the highest secret key generation rate for polarization-based QKD experiments at a standard telecom wavelength and demonstrate photonic integrated circuits as a promising, scalable resource for future formation of metropolitan quantum-secure communications networks.
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spelling mit-1721.1/1146312022-10-02T02:59:57Z Metropolitan Quantum Key Distribution with Silicon Photonics Lentine, Anthony Cai, Hong Long, Christopher M. Boynton, Nicholas Martinez, Nicholas DeRose, Christopher Grein, Matthew Trotter, Douglas Starbuck, Andrew Pomerene, Andrew Hamilton, Scott Davids, Paul Urayama, Junji Englund, Dirk Bunandar, Darius Lee, Catherine Chen, Changchen Wong, Ngai Chuen Camacho, Ryan Lincoln Laboratory Massachusetts Institute of Technology. Department of Electrical Engineering and Computer Science Bunandar, Darius Lee, Catherine Chen, Changchen Wong, Ngai Chuen Camacho, Ryan Photonic integrated circuits provide a compact and stable platform for quantum photonics. Here we demonstrate a silicon photonics quantum key distribution (QKD) encoder in the first high-speed polarization-based QKD field tests. The systems reach composable secret key rates of 1.039 Mbps in a local test (on a 103.6-m fiber with a total emulated loss of 9.2 dB) and 157 kbps in an intercity metropolitan test (on a 43-km fiber with 16.4 dB loss). Our results represent the highest secret key generation rate for polarization-based QKD experiments at a standard telecom wavelength and demonstrate photonic integrated circuits as a promising, scalable resource for future formation of metropolitan quantum-secure communications networks. 2018-04-09T17:27:33Z 2018-04-09T17:27:33Z 2018-04 2018-03 2018-04-07T18:00:11Z Article http://purl.org/eprint/type/JournalArticle 2160-3308 http://hdl.handle.net/1721.1/114631 Bunandar, Darius et al. "Metropolitan Quantum Key Distribution with Silicon Photonics." Physical Review X 8, 2 (April 2018): 021009 https://orcid.org/0000-0002-8218-5656 https://orcid.org/0000-0002-5125-8023 https://orcid.org/0000-0003-1998-6159 en http://dx.doi.org/10.1103/PhysRevX.8.021009 Physical Review X Creative Commons Attribution http://creativecommons.org/licenses/by/3.0 application/pdf American Physical Society American Physical Society
spellingShingle Lentine, Anthony
Cai, Hong
Long, Christopher M.
Boynton, Nicholas
Martinez, Nicholas
DeRose, Christopher
Grein, Matthew
Trotter, Douglas
Starbuck, Andrew
Pomerene, Andrew
Hamilton, Scott
Davids, Paul
Urayama, Junji
Englund, Dirk
Bunandar, Darius
Lee, Catherine
Chen, Changchen
Wong, Ngai Chuen
Camacho, Ryan
Metropolitan Quantum Key Distribution with Silicon Photonics
title Metropolitan Quantum Key Distribution with Silicon Photonics
title_full Metropolitan Quantum Key Distribution with Silicon Photonics
title_fullStr Metropolitan Quantum Key Distribution with Silicon Photonics
title_full_unstemmed Metropolitan Quantum Key Distribution with Silicon Photonics
title_short Metropolitan Quantum Key Distribution with Silicon Photonics
title_sort metropolitan quantum key distribution with silicon photonics
url http://hdl.handle.net/1721.1/114631
https://orcid.org/0000-0002-8218-5656
https://orcid.org/0000-0002-5125-8023
https://orcid.org/0000-0003-1998-6159
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