Spectrally Enhanced Policy Gradient Reinforcement Learning for Maximizing Connectivity Robustness in Dynamic Communication Networks
Year: 2026
Type: article
Abstract: Distributed control strategies have been employed as the fundamental basis for resource management and performance optimization in dynamic mobile edge networks, such as those found in urban smart cities and IoT systems. In these environments, traditional methods struggle to capture global connectivity dynamics, leading to suboptimal performance under rapidly changing network topologies. In this article, we propose a spectrally enhanced policy gradient reinforcement learning (SE-PGRL) scheme to address these challenges by integrating real-time spectral feedback into the control optimization process. Our approach leverages advanced graph-theoretic sensitivity analysis and iterative gradient-based updates with strong convergence guarantees to enhance state tracking accuracy, reduce control effort, and improve network resilience. Experimental results demonstrate that SE-PGRL achieves significant improvements, reducing mean squared error (mse) by 50%, decreasing control effort by 40%, and increasing connectivity robustness (CR) by 50%, thereby confirming its superiority over conventional methods.
Source: IEEE Internet of Things Journal
Authors: Yang Lu, Yuhong Zhang, Yan Zheng, Wei Xiang
Language: English
Topic: IoT and Edge/Fog Computing
Subfield: Computer Networks and Communications
Field: Computer Science
Domain: Physical Sciences
Open Access status: hybrid
Estimated APC paid: $2,645
Award: G1909177462
OpenAlex ID: W7166140262
