Poster + Paper
1 November 2024 Enhancing stability in Zernike coefficient computation through deep learning for polygonal mirrors of electro-optical satellite payloads
Author Affiliations +
Conference Poster
Abstract
In this study, we analyze the stability of Zernike coefficient computation using deep learning techniques and propose a new training method for deep learning model that can reliably output higher-order Zernike coefficients. Previous studies have shown that deep learning is a powerful tool for accurately deriving the Zernike coefficients of polygonal mirrors, but reliably extracting higher-order Zernike coefficients remains one of the challenges. To overcome these challenges, we present a new training method for the stability of deep learning model, enabling reliable high-order Zernike coefficient computation. The proposed deep learning model is designed based on the Network-in-Network concept, and a two-stage training process ensures that low-order and high-order Zernike coefficients are simultaneously reliably generated. Experimental results for performance evaluation show that the proposed deep learning model is effective in outputting stable and reliable higher-order Zernike coefficients, especially for polygonal mirrors.
(2024) Published by SPIE. Downloading of the abstract is permitted for personal use only.
Shinwook Kim, Youngchun Youk, and Goeun Kim "Enhancing stability in Zernike coefficient computation through deep learning for polygonal mirrors of electro-optical satellite payloads", Proc. SPIE 13200, Electro-Optical and Infrared Systems: Technology and Applications XXI, 132001U (1 November 2024); https://doi.org/10.1117/12.3033855
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KEYWORDS
Deep learning

Interferometers

Mirrors

Electrooptical modeling

Optical alignment

Electrooptics

Error analysis

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