Gaussian process regression algorithm for radiation source localization based on scintillation fiber optic sensor networks

This paper introduces a novel method that combines sensor networks and machine learning to achieve real-time monitoring and accurate localization of radiation sources. By deploying multiple sensors to create a monitoring network and developing a Gaussian process regression model from machine learning to reconstruct radiation field data from sensor measurements, the position of the radiation source is identified based on the peak coordinates of the reconstructed radiation field. The effectiveness of this approach is validated through simulation experiments involving localization with a single radiation source, two sources, and obstructions. Using LYPS:Ce crystal material as radiation sensors, an all-optical fiber multi-point sensor array was assembled. Radiation-induced luminescence tests were performed on a 60 Co radiation source, and radiation field reconstruction was achieved using the Gaussian process regression model. The results show that within a 5 m × 5 m radiation environment, the average positioning error with 25 sensors is 0.14m when using the Gaussian process regression algorithm. Combining sensor networks with Gaussian process regression algorithms enables real-time, remote dose monitoring and precise positioning of radiation sources.

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Publication Details

Journal
Nuclear Engineering and Technology
Published
2026-02-24
DOI
https://doi.org/10.1016/j.net.2026.104216
Primary Topic
Gaussian Processes and Bayesian Inference
Type
article
Field-Weighted Citation Impact
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Gaussian process regression algorithm for radiation source localization based on scintillation fiber optic sensor networks

Hongli Chen, Yollanda Bella Christy, Linfeng He, Yuan Ou et al.
Nuclear Engineering and Technology
Gaussian Processes and Bayesian Inference
article

Gaussian process regression algorithm for radiation source localization based on scintillation fiber optic sensor networks

Hongli Chen, Yollanda Bella Christy, Linfeng He, Yuan Ou, Xulin Luo, Qiang Guo, Yahui Li
article en

Abstract

This paper introduces a novel method that combines sensor networks and machine learning to achieve real-time monitoring and accurate localization of radiation sources. By deploying multiple sensors to create a monitoring network and developing a Gaussian process regression model from machine learning to reconstruct radiation field data from sensor measurements, the position of the radiation source is identified based on the peak coordinates of the reconstructed radiation field. The effectiveness of this approach is validated through simulation experiments involving localization with a single radiation source, two sources, and obstructions. Using LYPS:Ce crystal material as radiation sensors, an all-optical fiber multi-point sensor array was assembled. Radiation-induced luminescence tests were performed on a 60 Co radiation source, and radiation field reconstruction was achieved using the Gaussian process regression model. The results show that within a 5 m × 5 m radiation environment, the average positioning error with 25 sensors is 0.14m when using the Gaussian process regression algorithm. Combining sensor networks with Gaussian process regression algorithms enables real-time, remote dose monitoring and precise positioning of radiation sources.

Nuclear Engineering and TechnologyVol. 58(6)
Shanghai University (CN), Shanghai Institute of Measurement and Testing Technology (CN)
Affordable and clean energy
Openalex Percentile: Top 50%
Gaussian Processes and Bayesian Inference
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