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arXiv · 2501.18339

Impact of Reactive Jamming Attacks on LoRaWAN: a Theoretical and Experimental Study

Amavi Dossa·Andreas Burg·El Mehdi Amhoud
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Abstract

This paper investigates the impact of reactive jamming on LoRaWAN networks, focusing on showing that LoRaWAN communications can be effectively disrupted with minimal jammer exposure time. The susceptibility of LoRa to jamming is assessed through a theoretical study of how the frame success rate is impacted by only a few jamming symbols. Different jamming approaches are studied, among which repeated-symbol jamming appears to be the most disruptive, with sufficient jamming power. A key contribution of this work is the proposal of a software-defined radio (SDR)-based jamming approach implemented on GNU Radio that generates a controlled number of random symbols, independent of the standard LoRa frame structure. This approach enables precise control over jammer exposure time and provides flexibility in studying the effect of jamming symbols on network performance. The theoretical analysis is validated through experimental results, where the implemented jammer is used to assess the impact of jamming under various configurations. Our findings demonstrate that LoRa-based networks can be disrupted with a minimal number of symbols, emphasizing the need for future research on stealthy communication techniques to counter such jamming attacks.

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Amavi Dossa, Andreas Burg, El Mehdi Amhoud. 2025-04-22. Impact of Reactive Jamming Attacks on LoRaWAN: a Theoretical and Experimental Study. https://arxiv.org/abs/2501.18339

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