Statistical Insights into Drone Detection in Distributed ICAS Systems

For the sensing aspect of Integrated Communication and Sensing, this study reports a statistical analysis of the detection probability for a distributed drone detection system. Due to their complex shape, size, and composed material, drone reflection cannot be modeled as a Swerling case, known as the target fluctuation model in traditional radar sensing. For this reason, the fluctuation characteristics of the drone's reflectivity are modeled as a Gaussian mixture distributed model using the drone's bistatic radar cross section. Then, this model is integrated into the probability of detection equation to analyze its dependency on receiver locations, different operating frequency bands, polarizations of the drone's reflectivity, and the drone flight trajectories. The probability of detection is evaluated for a given signal-to-noise ratio and a desired probability of false alarm to determine how it depends on the above aspects.

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Publication Details

Published
2025-05-21
DOI
https://doi.org/10.23919/irs64527.2025.11046148
Citations
1
Primary Topic
Radar Systems and Signal Processing
Type
article
Field-Weighted Citation Impact
4.99
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article

Statistical Insights into Drone Detection in Distributed ICAS Systems

Jörg Robert, Reiner S. Thomä, Saw James Myint, Christian Schneider et al.
1 citations
Radar Systems and Signal Processing
4.99
article

Statistical Insights into Drone Detection in Distributed ICAS Systems

Jörg Robert, Reiner S. Thomä, Saw James Myint, Christian Schneider, Chiraphan Teekha
article en
1 citations

Abstract

For the sensing aspect of Integrated Communication and Sensing, this study reports a statistical analysis of the detection probability for a distributed drone detection system. Due to their complex shape, size, and composed material, drone reflection cannot be modeled as a Swerling case, known as the target fluctuation model in traditional radar sensing. For this reason, the fluctuation characteristics of the drone's reflectivity are modeled as a Gaussian mixture distributed model using the drone's bistatic radar cross section. Then, this model is integrated into the probability of detection equation to analyze its dependency on receiver locations, different operating frequency bands, polarizations of the drone's reflectivity, and the drone flight trajectories. The probability of detection is evaluated for a given signal-to-noise ratio and a desired probability of false alarm to determine how it depends on the above aspects.

Technische Universität Ilmenau (DE), Oldenburger Institut für Informatik (DE)
Openalex Percentile: Top 6%
Radar Systems and Signal Processing
4.99
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Statistical Insights into Drone Detection in Distributed ICAS Systems — Jörg Robert, Reiner S. Thomä, et al. · (2025) | TGRS Research Map | TGRS