PENTAGON: Physics-enhanced neural network for volumetric flame chemiluminescence tomography

This study proposes a physics-enhanced neural network, PENTAGON, as an inference framework for volumetric tomography applications. By leveraging the synergistic combination of data-prior and forward-imaging model, we can accurately predict 3D optical fields, even when the number of projection views decreases to three. PENTAGON is proven to overcome the generalization limitation of data-driven deep learning methods due to data distribution shift, and eliminate distortions introduced by conventional iteration algorithms with limited projections. We evaluated PENTAGON using numerical and experimental results of a flame chemiluminescence tomography example. Results showed that PENTAGON can potentially be generalized for inverse tomography reconstruction problems in many fields.

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Publication Details

Journal
Optics Express
Published
2024-08-16
DOI
https://doi.org/10.1364/oe.536550
Citations
4
Primary Topic
Spectroscopy and Laser Applications
Type
article
Field-Weighted Citation Impact
0.96

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PENTAGON: Physics-enhanced neural network for volumetric flame chemiluminescence tomography

Shouyu Wang, Guohai Situ, Fei Wang, Quanying Wu et al.
4 citations
Optics Express
Spectroscopy and Laser Applications
0.96
article

PENTAGON: Physics-enhanced neural network for volumetric flame chemiluminescence tomography

Shouyu Wang, Guohai Situ, Fei Wang, Quanying Wu, Ying Jin, Sunyong Zhu
article en
4 citations

Abstract

This study proposes a physics-enhanced neural network, PENTAGON, as an inference framework for volumetric tomography applications. By leveraging the synergistic combination of data-prior and forward-imaging model, we can accurately predict 3D optical fields, even when the number of projection views decreases to three. PENTAGON is proven to overcome the generalization limitation of data-driven deep learning methods due to data distribution shift, and eliminate distortions introduced by conventional iteration algorithms with limited projections. We evaluated PENTAGON using numerical and experimental results of a flame chemiluminescence tomography example. Results showed that PENTAGON can potentially be generalized for inverse tomography reconstruction problems in many fields.

Optics ExpressVol. 32(19)
Suzhou University of Science and Technology (CN), Shanghai Institute of Optics and Fine Mechanics (CN)
National Natural Science Foundation of China, Program of Shanghai Academic Research Leader
Openalex Percentile: Top 28%
Spectroscopy and Laser Applications
0.96
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