Machine learning applied to monochromatic diffraction: direct and inverse problems

We train a neural network using diffraction patterns to reproduce experimental diffraction patterns for a half-plane, a single slit, and a circular aperture. The training is done over theoretical data calculated under the Fresnel diffraction framework and applied to both calculated and experimental diffraction patterns. Experiments were designed to predict diffraction patterns from given obstacles and propagation distances and, conversely, to predict diffraction distances from known profiles. The second part was successfully carried out for theoretically calculated profiles and experimental data. The results show that the trained neural networks have outstanding performance as they reconstruct diffraction patterns with an error comparable to background noise of a standard experimental setup and recover propagation distances with millimeter precision from collected data.

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Publication Details

Journal
Journal of the Optical Society of America A
Published
2026-04-15
DOI
https://doi.org/10.1364/josaa.592423
Primary Topic
Crystallography and Radiation Phenomena
Type
article
Field-Weighted Citation Impact
0.00

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article

Machine learning applied to monochromatic diffraction: direct and inverse problems

Alejandra Gutiérrez-Esparza, Wanderson Pimenta, Paola Blumenkron Guerrero, Miguel Ocana-Bribiesca et al.
Journal of the Optical Society of America A
Crystallography and Radiation Phenomena
article

Machine learning applied to monochromatic diffraction: direct and inverse problems

Alejandra Gutiérrez-Esparza, Wanderson Pimenta, Paola Blumenkron Guerrero, Miguel Ocana-Bribiesca, Juan Trevino
article en

Abstract

We train a neural network using diffraction patterns to reproduce experimental diffraction patterns for a half-plane, a single slit, and a circular aperture. The training is done over theoretical data calculated under the Fresnel diffraction framework and applied to both calculated and experimental diffraction patterns. Experiments were designed to predict diffraction patterns from given obstacles and propagation distances and, conversely, to predict diffraction distances from known profiles. The second part was successfully carried out for theoretically calculated profiles and experimental data. The results show that the trained neural networks have outstanding performance as they reconstruct diffraction patterns with an error comparable to background noise of a standard experimental setup and recover propagation distances with millimeter precision from collected data.

Journal of the Optical Society of America AVol. 43(6)
Universidad de las Américas Puebla (MX)
Sistema Nacional de Investigadores
Openalex Percentile: Top 23%
Crystallography and Radiation Phenomena
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