Physics-Inspired Machine Learning for Radiomap Estimation: Integration of Radio Propagation Models and Artificial Intelligence

Radiomap captures the geometrical distribution of radio frequency signal power. As an important tool to qualitatively and quantitatively describe radio propagation behavior and spectrum occupancy, radiomap has found broad applications in deployment and configuration of modern wireless and Internet-of-things networks. Practically, a high-resolution radiomap can be reconstructed from partial or sparse observations collected by mobile devices or sensors. To leverage the power of radiomap, efficient radiomap reconstruction from sparse samples has emerged as an urgent challenge. To capture the underlying data statistics, and also to estimate the physical radio frequency models, this work introduces three types of physics-inspired machine learning approaches to radiomap reconstruction. The experimental results demonstrate the potential of integrating data-driven artificial intelligence with model-based radio propagation behavior for radiomap reconstruction.

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Publication Details

Journal
IEEE Communications Magazine
Published
2024-08-01
DOI
https://doi.org/10.1109/mcom.001.2300782
Citations
14
Primary Topic
Millimeter-Wave Propagation and Modeling
Type
article
Field-Weighted Citation Impact
2.92

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article

Physics-Inspired Machine Learning for Radiomap Estimation: Integration of Radio Propagation Models and Artificial Intelligence

Zhi Ding, Songyang Zhang, Feng Ouyang, Brian Choi
14 citations
IEEE Communications Magazine
Millimeter-Wave Propagation and Modeling
2.92
article

Physics-Inspired Machine Learning for Radiomap Estimation: Integration of Radio Propagation Models and Artificial Intelligence

Zhi Ding, Songyang Zhang, Feng Ouyang, Brian Choi
article en
14 citations

Abstract

Radiomap captures the geometrical distribution of radio frequency signal power. As an important tool to qualitatively and quantitatively describe radio propagation behavior and spectrum occupancy, radiomap has found broad applications in deployment and configuration of modern wireless and Internet-of-things networks. Practically, a high-resolution radiomap can be reconstructed from partial or sparse observations collected by mobile devices or sensors. To leverage the power of radiomap, efficient radiomap reconstruction from sparse samples has emerged as an urgent challenge. To capture the underlying data statistics, and also to estimate the physical radio frequency models, this work introduces three types of physics-inspired machine learning approaches to radiomap reconstruction. The experimental results demonstrate the potential of integrating data-driven artificial intelligence with model-based radio propagation behavior for radiomap reconstruction.

IEEE Communications MagazineVol. 62(8)
Johns Hopkins University Applied Physics Laboratory (US), University of Louisiana at Lafayette (US), University of California, Davis (US)
National Science Foundation, University of Louisiana at Lafayette, Applied Physics Laboratory, Johns Hopkins University
Openalex Percentile: Top 9%
Millimeter-Wave Propagation and Modeling
2.92
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Physics-Inspired Machine Learning for Radiomap Estimation: Integration of Radio Propagation Models and Artificial Intelligence — Zhi Ding, Songyang Zhang, et al. · IEEE Communications Magazine (2024) | TGRS Research Map | TGRS