Threat Assessment of Buried Objects Using Single-Frequency Microwave Measurements

This study presents a lightweight neural network model integrated with a microwave-based detection system for identifying buried objects. The proposed model is trained and tested exclusively on real-world measurements, enhancing its practical relevance and robustness. The system utilizes 16 × 16 scattering parameter (S-parameter) measurements, transformed into a compact 256-dimensional feature vector that captures the microwave response of subsurface materials. This representation enables a neural network architecture with reduced computational complexity while maintaining high accuracy. Experimental evaluations demonstrate that the proposed model achieves an accuracy of 99.83%, an F1 score of 0.989, and a recall of 0.979 in distinguishing hazardous from non-hazardous (safe) objects, outperforming baseline CNN, DRN, and EfficientNet architectures. These results confirm the suitability of the approach in defense and security applications.

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Publication Details

Journal
Sensors
Published
2025-08-19
DOI
https://doi.org/10.3390/s25165132
Citations
1
Primary Topic
Geophysical Methods and Applications
Type
article
Field-Weighted Citation Impact
1.15

Funders

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article

Threat Assessment of Buried Objects Using Single-Frequency Microwave Measurements

İbrahim Akduman, İbrahim Halil Bayat, Semih Doğu, Gülçin Yarimay
1 citations
Sensors
Geophysical Methods and Applications
1.15
article

Threat Assessment of Buried Objects Using Single-Frequency Microwave Measurements

İbrahim Akduman, İbrahim Halil Bayat, Semih Doğu, Gülçin Yarimay
article en
1 citations

Abstract

This study presents a lightweight neural network model integrated with a microwave-based detection system for identifying buried objects. The proposed model is trained and tested exclusively on real-world measurements, enhancing its practical relevance and robustness. The system utilizes 16 × 16 scattering parameter (S-parameter) measurements, transformed into a compact 256-dimensional feature vector that captures the microwave response of subsurface materials. This representation enables a neural network architecture with reduced computational complexity while maintaining high accuracy. Experimental evaluations demonstrate that the proposed model achieves an accuracy of 99.83%, an F1 score of 0.989, and a recall of 0.979 in distinguishing hazardous from non-hazardous (safe) objects, outperforming baseline CNN, DRN, and EfficientNet architectures. These results confirm the suitability of the approach in defense and security applications.

SensorsVol. 25(16)
Turkish Aerospace Industries (Turkey) (TR), Istanbul Technical University (TR)
Istanbul Teknik Üniversitesi
Openalex Percentile: Top 20%
Geophysical Methods and Applications
1.15
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