Hollow-core NANF for High-speed Short-reach Transmission in the S+C+L-bands
Hollow-core NANF for High-speed Short-reach Transmission in the S+C+L-bands
Hollow-core fibers offer a range of beneficial properties for high-speed optical communication applications, including low latency, low chromatic dispersion and nonlinearity. Based on a system employing a ~5-km span of hollow-core nested antiresonant nodeless fiber (NANF), we demonstrate in this paper, penalty-free Nyquist 4-ary pulse amplitude modulation transmission relative to the back-to-back at 80, 100 and 112 Gb/s over the S+C+L-bands. Furthermore, using multi-carrier direct-detection optical orthogonal frequency division multiplexing, we show that compared to a standard single-mode fiber of a similar length, the NANF exhibits a significantly better bit error rate (BER) performance at 1550 nm and offers more than 20% capacity enhancement. Consequently, up to 138.09-Gb/s capacity has been achieved at a BER threshold of 3.8×10-3 after ~5-km transmission. We conclude that the use of NANF offers a promising solution for achieving simultaneously high capacity and low latency in future short-reach optical interconnects.
Hollow-core fibers, intensity-modulation and direct-detection, short-reach optical interconnects, ultra-wideband transmission
6167-6174
Hong, Yang
73d5144c-02db-4977-b517-0d2f5a052807
Bradley, Thomas
d4cce4f3-bb69-4e14-baee-cd6a88e38101
Taengnoi, Natsupa
afc5fb3e-224b-43b3-a161-931ed77faec1
Bottrill, Kyle
8c2e6c2d-9f14-424e-b779-43c23e2f49ac
Hayes, John
a6d3acd6-d7d5-4614-970e-0e8c594e48e2
Jasion, Gregory
16cfff1d-d178-41d1-a092-56e6239726b8
Poletti, Francesco
9adcef99-5558-4644-96d7-ce24b5897491
Petropoulos, Periklis
522b02cc-9f3f-468e-bca5-e9f58cc9cad7
Richardson, David
ebfe1ff9-d0c2-4e52-b7ae-c1b13bccdef3
Hong, Yang
73d5144c-02db-4977-b517-0d2f5a052807
Bradley, Thomas
d4cce4f3-bb69-4e14-baee-cd6a88e38101
Taengnoi, Natsupa
afc5fb3e-224b-43b3-a161-931ed77faec1
Bottrill, Kyle
8c2e6c2d-9f14-424e-b779-43c23e2f49ac
Hayes, John
a6d3acd6-d7d5-4614-970e-0e8c594e48e2
Jasion, Gregory
16cfff1d-d178-41d1-a092-56e6239726b8
Poletti, Francesco
9adcef99-5558-4644-96d7-ce24b5897491
Petropoulos, Periklis
522b02cc-9f3f-468e-bca5-e9f58cc9cad7
Richardson, David
ebfe1ff9-d0c2-4e52-b7ae-c1b13bccdef3
Hong, Yang, Bradley, Thomas, Taengnoi, Natsupa, Bottrill, Kyle, Hayes, John, Jasion, Gregory, Poletti, Francesco, Petropoulos, Periklis and Richardson, David
(2021)
Hollow-core NANF for High-speed Short-reach Transmission in the S+C+L-bands.
IEEE Journal of Lightwave Technology, 39 (19), .
(doi:10.1109/JLT.2021.3097278).
Abstract
Hollow-core fibers offer a range of beneficial properties for high-speed optical communication applications, including low latency, low chromatic dispersion and nonlinearity. Based on a system employing a ~5-km span of hollow-core nested antiresonant nodeless fiber (NANF), we demonstrate in this paper, penalty-free Nyquist 4-ary pulse amplitude modulation transmission relative to the back-to-back at 80, 100 and 112 Gb/s over the S+C+L-bands. Furthermore, using multi-carrier direct-detection optical orthogonal frequency division multiplexing, we show that compared to a standard single-mode fiber of a similar length, the NANF exhibits a significantly better bit error rate (BER) performance at 1550 nm and offers more than 20% capacity enhancement. Consequently, up to 138.09-Gb/s capacity has been achieved at a BER threshold of 3.8×10-3 after ~5-km transmission. We conclude that the use of NANF offers a promising solution for achieving simultaneously high capacity and low latency in future short-reach optical interconnects.
More information
Accepted/In Press date: 12 July 2021
e-pub ahead of print date: 14 July 2021
Keywords:
Hollow-core fibers, intensity-modulation and direct-detection, short-reach optical interconnects, ultra-wideband transmission
Identifiers
Local EPrints ID: 450456
URI: http://eprints.soton.ac.uk/id/eprint/450456
ISSN: 0733-8724
PURE UUID: 50c30343-85ee-4e9d-904f-07692cdbc734
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Date deposited: 28 Jul 2021 16:32
Last modified: 17 Mar 2024 03:41
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