SYITLGSPOct 15, 2024

Communication-Control Codesign for Large-Scale Wireless Networked Control Systems

arXiv:2410.11316v18 citationsh-index: 116IEEE J Sel Area Commun
Originality Incremental advance
AI Analysis

This work addresses inefficiencies in industrial automation applications like drone swarms, though it appears incremental as it builds on existing codesign approaches with a more practical model.

The paper tackled the problem of inefficient communication-control codesign in large-scale wireless networked control systems by proposing a deep reinforcement learning algorithm that jointly optimizes scheduling and control, resulting in outperformance over benchmarks in simulations.

Wireless Networked Control Systems (WNCSs) are essential to Industry 4.0, enabling flexible control in applications, such as drone swarms and autonomous robots. The interdependence between communication and control requires integrated design, but traditional methods treat them separately, leading to inefficiencies. Current codesign approaches often rely on simplified models, focusing on single-loop or independent multi-loop systems. However, large-scale WNCSs face unique challenges, including coupled control loops, time-correlated wireless channels, trade-offs between sensing and control transmissions, and significant computational complexity. To address these challenges, we propose a practical WNCS model that captures correlated dynamics among multiple control loops with spatially distributed sensors and actuators sharing limited wireless resources over multi-state Markov block-fading channels. We formulate the codesign problem as a sequential decision-making task that jointly optimizes scheduling and control inputs across estimation, control, and communication domains. To solve this problem, we develop a Deep Reinforcement Learning (DRL) algorithm that efficiently handles the hybrid action space, captures communication-control correlations, and ensures robust training despite sparse cross-domain variables and floating control inputs. Extensive simulations show that the proposed DRL approach outperforms benchmarks and solves the large-scale WNCS codesign problem, providing a scalable solution for industrial automation.

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