Fine-grained All-fiber Nonlocal Dispersion Compensation in the Telecommunications O-Band

Fuente: arXiv
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Autori principali: Chua, RuiMing, Grieve, James A., Ling, Alexander
Natura: Preprint
Pubblicazione: 2022
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author Chua, RuiMing
Grieve, James A.
Ling, Alexander
author_facet Chua, RuiMing
Grieve, James A.
Ling, Alexander
contents Nonlocal dispersion compensation between broadband photon pairs propagated over fiber corresponding to the ITU-T G.652D telecommunications standard was studied via fine-grained measurements of the temporal correlation between them. We demonstrated near-ideal levels of nonlocal dispersion compensation by adjusting the propagation distance of the photon pairs to preserve photon timing correlations close to the effective instrument resolution of our detection apparatus (41.0$\pm$0.1ps). Experimental data indicates that this degree of compensation can be achieved with relatively large fiber increments (1km), compatible with real-world deployment. Ultimately, photon timing correlations were preserved down to 51ps$\pm$21ps over two multi-segmented 10km spans of deployed metropolitan fiber.
format Preprint
id arxiv_https___arxiv_org_abs_2201_10962
institution arXiv
publishDate 2022
record_format arxiv
spellingShingle Fine-grained All-fiber Nonlocal Dispersion Compensation in the Telecommunications O-Band
Chua, RuiMing
Grieve, James A.
Ling, Alexander
Optics
Quantum Physics
Nonlocal dispersion compensation between broadband photon pairs propagated over fiber corresponding to the ITU-T G.652D telecommunications standard was studied via fine-grained measurements of the temporal correlation between them. We demonstrated near-ideal levels of nonlocal dispersion compensation by adjusting the propagation distance of the photon pairs to preserve photon timing correlations close to the effective instrument resolution of our detection apparatus (41.0$\pm$0.1ps). Experimental data indicates that this degree of compensation can be achieved with relatively large fiber increments (1km), compatible with real-world deployment. Ultimately, photon timing correlations were preserved down to 51ps$\pm$21ps over two multi-segmented 10km spans of deployed metropolitan fiber.
title Fine-grained All-fiber Nonlocal Dispersion Compensation in the Telecommunications O-Band
topic Optics
Quantum Physics
url https://arxiv.org/abs/2201.10962