Machine learning-driven complex models for wavefront shaping through multimode fibers

• Full complex models of multimode fibers using machine learning approaches. • 3D beam shaping using full complex models of highly multimode fiber. • Neural network models of non-linear Kerr propagation in multimode fiber. We investigate a method to retrieve full-complex models (Transmission Matrix and Neural Network) of a highly multimode fiber (140 LP modes/polarization) using a straightforward machine learning approach, without the need of a reference beam. The models are first validated by the high fidelity between the predicted and the experimental images in the near field and far field output planes (Pearson correlation coefficient between 97.5% and 99.1% with our trained Transmission Matrix or Neural Network). Their accuracy was further confirmed by successful 3D beam shaping, a task achievable only with a true full complex model. As a prospect, we also demonstrate the ability of our neural network architecture to model nonlinear Kerr propagation in gradient index multimode fiber and predict the output beam shape.

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Publication Details

Journal
Optical Fiber Technology
Published
2024-11-06
DOI
https://doi.org/10.1016/j.yofte.2024.104017
Citations
2
Primary Topic
Optical Network Technologies
Type
article
Field-Weighted Citation Impact
0.42

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article

Machine learning-driven complex models for wavefront shaping through multimode fibers

David Helbert, Jérémy Saucourt, Benjamin Gobé, Agnès Desfarges‐Berthelemot et al.
2 citations
Optical Fiber Technology
Optical Network Technologies
0.42
article

Machine learning-driven complex models for wavefront shaping through multimode fibers

David Helbert, Jérémy Saucourt, Benjamin Gobé, Agnès Desfarges‐Berthelemot, Vincent Kermène
article en
2 citations

Abstract

• Full complex models of multimode fibers using machine learning approaches. • 3D beam shaping using full complex models of highly multimode fiber. • Neural network models of non-linear Kerr propagation in multimode fiber. We investigate a method to retrieve full-complex models (Transmission Matrix and Neural Network) of a highly multimode fiber (140 LP modes/polarization) using a straightforward machine learning approach, without the need of a reference beam. The models are first validated by the high fidelity between the predicted and the experimental images in the near field and far field output planes (Pearson correlation coefficient between 97.5% and 99.1% with our trained Transmission Matrix or Neural Network). Their accuracy was further confirmed by successful 3D beam shaping, a task achievable only with a true full complex model. As a prospect, we also demonstrate the ability of our neural network architecture to model nonlinear Kerr propagation in gradient index multimode fiber and predict the output beam shape.

Optical Fiber TechnologyVol. 88
Centre National de la Recherche Scientifique (FR), Université de Poitiers (FR), XLIM (FR), Université de Limoges (FR)
European Regional Development Fund
Openalex Percentile: Top 37%
Optical Network Technologies
0.42
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