Beam Prediction Method for Antenna Arrays in Radio Astronomy via Artificial Neural Networks

With the SKA-Low construction underway, we explore the potential of using artificial neural networks to generate embedded element patterns (EEPs) at fine frequency channels. Exploiting the existing FEKO-simulated database of EEPs, we trained a prediction model that generates 512 EEPs (for 256 antennas with two polarizations) in only 1.28 sec. To perform the model evaluation, we derived specific performance metrics that are based on simulation tolerance threshold and consider the level of error that would have a potential impact on observations. High accuracy in EEP prediction is achieved, with significant improvements in computational efficiency compared to the full-wave simulations.

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Published
2025-03-30
DOI
https://doi.org/10.23919/eucap63536.2025.10999323
Primary Topic
Radio Astronomy Observations and Technology
Type
article
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article

Beam Prediction Method for Antenna Arrays in Radio Astronomy via Artificial Neural Networks

David Davidson, Maria Kovaleva, C. Chen
Radio Astronomy Observations and Technology
article

Beam Prediction Method for Antenna Arrays in Radio Astronomy via Artificial Neural Networks

David Davidson, Maria Kovaleva, C. Chen
article en

Abstract

With the SKA-Low construction underway, we explore the potential of using artificial neural networks to generate embedded element patterns (EEPs) at fine frequency channels. Exploiting the existing FEKO-simulated database of EEPs, we trained a prediction model that generates 512 EEPs (for 256 antennas with two polarizations) in only 1.28 sec. To perform the model evaluation, we derived specific performance metrics that are based on simulation tolerance threshold and consider the level of error that would have a potential impact on observations. High accuracy in EEP prediction is achieved, with significant improvements in computational efficiency compared to the full-wave simulations.

Curtin University (AU), International Centre for Radio Astronomy Research (AU)
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Radio Astronomy Observations and Technology
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Beam Prediction Method for Antenna Arrays in Radio Astronomy via Artificial Neural Networks — David Davidson, Maria Kovaleva, et al. · (2025) | TGRS Research Map | TGRS