aiqbench analysis
This research applies deep learning techniques, specifically CNNs and GATv2 networks with Deep Q-Learning, to optimize agent deployment in cooperative guard problems while maintaining formal coverage guarantees. By learning optimal corner selections, the proposed heuristics significantly reduce steps to full coverage and improve agent utilization compared to baseline algorithms without sacrificing safety constraints. The work represents a meaningful advancement in multi-agent machine learning for robotics and autonomous system coordination.
On Learning Optimal Corners in Orthogonal Partially Observable Cooperative Guard Art Galleries
arXiv:2610.06777v1 Announce Type: cross Abstract: The CADENCE algorithm solves the Partially Observable Cooperative Guard Art Gallery Problem (POCGAGP) with formal coverage and connectivity guarantees, but leaves unspecified which valid corner each agent should be deployed to, a choice that strongly affects efficiency. We introduce two learned corner-selection heuristics that preserve these guarantees: a CNN scoring candidates on a grid encoding, and a GATv2 network trained with Deep Q-Learning (DQN) on a visibility graph. Across 7,500 runs on random orthogonal environments (50x50 to 250x250), our heuristics outperform baseline CADENCE in both steps to full coverage and peak agent count, with gains growing with scale, and improve on Incremental Self-Deployment (ISDA) baselines in agent utilization while providing guarantees ISDA lacks. Learned corner selection thus improves CADENCE in speed and agent utilization at no cost to its formal properties.
Abstract:The CADENCE algorithm solves the Partially Observable Cooperative Guard Art Gallery Problem (POCGAGP) with formal coverage and connectivity guarantees, but leaves unspecified which valid corner each agent should be deployed to, a choice that strongly affects efficiency. We introduce two learned corner-selection heuristics that preserve these guarantees: a CNN scoring candidates on a grid encoding, and a GATv2 network trained with Deep Q-Learning (DQN) on a visibility graph. Across 7,500 runs on random orthogonal environments (50x50 to 250x250), our heuristics outperform baseline CADENCE in both steps to full coverage and peak agent count, with gains growing with scale, and improve on Incremental Self-Deployment (ISDA) baselines in agent utilization while providing guarantees ISDA lacks. Learned corner selection thus improves CADENCE in speed and agent utilization at no cost to its formal properties.
Multiagent Systems (cs.MA); Machine Learning (cs.LG); Robotics (cs.RO)
arXiv:2610.06777 [cs.MA]
(or arXiv:2610.06777v1 [cs.MA] for this version)
https://doi.org/10.48550/arXiv.2610.06777 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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Full text under the publisher's open licence · 230 words
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