Graph model for multiple scattering in lithium niobate on insulator integrated photonic networks

Fuente: arXiv
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Auteurs principaux: Wang, Xiyue Sissi, Savo, Romolo, Maeder, Andreas, Kaufmann, Fabian, Kellner, Jost, Morandi, Andrea, Rotter, Stefan, Sapienza, Riccardo, Grange, Rachel
Format: Preprint
Publié: 2023
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author Wang, Xiyue Sissi
Savo, Romolo
Maeder, Andreas
Kaufmann, Fabian
Kellner, Jost
Morandi, Andrea
Rotter, Stefan
Sapienza, Riccardo
Grange, Rachel
author_facet Wang, Xiyue Sissi
Savo, Romolo
Maeder, Andreas
Kaufmann, Fabian
Kellner, Jost
Morandi, Andrea
Rotter, Stefan
Sapienza, Riccardo
Grange, Rachel
contents We present a graph-based model for multiple scattering of light in integrated lithium niobate on insulator (LNOI) networks, which describes an open network of single-mode integrated waveguides with tunable scattering at the network nodes. We first validate the model at small scale with experimental LNOI resonator devices and show consistent agreement between simulated and measured spectral data. Then, the model is used to demonstrate a novel platform for on-chip multiple scattering in large-scale optical networks up to few hundred nodes, with tunable scattering behaviour and tailored disorder. Combining our simple graph-based model with material properties of LNOI, this platform creates new opportunities to control randomness in large optical networks.
format Preprint
id arxiv_https___arxiv_org_abs_2306_15483
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Graph model for multiple scattering in lithium niobate on insulator integrated photonic networks
Wang, Xiyue Sissi
Savo, Romolo
Maeder, Andreas
Kaufmann, Fabian
Kellner, Jost
Morandi, Andrea
Rotter, Stefan
Sapienza, Riccardo
Grange, Rachel
Optics
Applied Physics
We present a graph-based model for multiple scattering of light in integrated lithium niobate on insulator (LNOI) networks, which describes an open network of single-mode integrated waveguides with tunable scattering at the network nodes. We first validate the model at small scale with experimental LNOI resonator devices and show consistent agreement between simulated and measured spectral data. Then, the model is used to demonstrate a novel platform for on-chip multiple scattering in large-scale optical networks up to few hundred nodes, with tunable scattering behaviour and tailored disorder. Combining our simple graph-based model with material properties of LNOI, this platform creates new opportunities to control randomness in large optical networks.
title Graph model for multiple scattering in lithium niobate on insulator integrated photonic networks
topic Optics
Applied Physics
url https://arxiv.org/abs/2306.15483