GRAPE-S: Near Real-Time Coalition Formation for Multiple Service Collectives
Grace Diehl, Julie A. Adams

TL;DR
This paper introduces GRAPE-S and Pair-GRAPE-S, innovative algorithms capable of forming near-optimal coalitions in real-time for large, distributed robotic collectives with multiple services, outperforming traditional auction-based methods.
Contribution
The paper presents the first algorithms supporting near real-time coalition formation for large, multi-service robotic collectives, integrating GRAPE with a services model.
Findings
GRAPE-S produces near optimal solutions in under 5 minutes.
Pair-GRAPE-S achieves optimal solutions in near real-time.
Auction-based methods are inefficient for large, distributed collectives.
Abstract
Robotic collectives for military and disaster response applications require coalition formation algorithms to partition robots into appropriate task teams. Collectives' missions will often incorporate tasks that require multiple high-level robot behaviors or services, which coalition formation must accommodate. The highly dynamic and unstructured application domains also necessitate that coalition formation algorithms produce near optimal solutions (i.e., >95% utility) in near real-time (i.e., <5 minutes) with very large collectives (i.e., hundreds of robots). No previous coalition formation algorithm satisfies these requirements. An initial evaluation found that traditional auction-based algorithms' runtimes are too long, even though the centralized simulator incorporated ideal conditions unlikely to occur in real-world deployments (i.e., synchronization across robots and perfect,…
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Taxonomy
TopicsAuction Theory and Applications · Optimization and Search Problems · Modular Robots and Swarm Intelligence
Methodstravel james
