🤖 AI Summary
Cognitive radar deployment for electronic warfare faces challenges of excessive time consumption and susceptibility to local optima during anti-jamming adaptation. Method: This paper proposes FARDA, an end-to-end deep reinforcement learning framework featuring a novel heatmap perception neural module for real-time modeling of interference environments, coupled with a customized reward function jointly optimizing coverage quality and deployment efficiency to mitigate local optima. Contribution/Results: Experiments demonstrate that FARDA achieves coverage performance comparable to conventional evolutionary algorithms while accelerating deployment by approximately 7,000×. Ablation studies confirm the critical roles of both the heatmap perception module and the redesigned reward mechanism. This work establishes an efficient, scalable paradigm for rapid, adaptive cognitive radar deployment in dynamic electromagnetic environments.
📝 Abstract
The fast deployment of cognitive radar to counter jamming remains a critical challenge in modern warfare, where more efficient deployment leads to quicker detection of targets. Existing methods are primarily based on evolutionary algorithms, which are time-consuming and prone to falling into local optima. We tackle these drawbacks via the efficient inference of neural networks and propose a brand new framework: Fast Anti-Jamming Radar Deployment Algorithm (FARDA). We first model the radar deployment problem as an end-to-end task and design deep reinforcement learning algorithms to solve it, where we develop integrated neural modules to perceive heatmap information and a brand new reward format. Empirical results demonstrate that our method achieves coverage comparable to evolutionary algorithms while deploying radars approximately 7,000 times faster. Further ablation experiments confirm the necessity of each component of FARDA.