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This paper introduces SPIN, a framework that uses tensor network compression and frozen neural mappers to solve the combinatorial scaling issues in decentralized multi-agent swarm coordination without requiring online retraining. By factorizing joint policy tensors into Matrix Product State chains, it achieves linear scalability for local behaviors while maintaining performance across diverse tasks like area coverage and structured goal coordination. The approach represents a significant methodological advance for machine learning applications involving complex, dynamic agent systems where traditional optimization loops are computationally prohibitive.
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SPIN: Decentralized Swarm Control via Tensorized Policy Coordination

arXiv3 min read

arXiv:2606.07557v2 Announce Type: replace Abstract: Decentralized multi-agent swarm coordination remains fundamentally challenged by the combinatorial scaling of joint action spaces and high-overhead training or optimization loops when managing localized group behaviors. To address this problem from a different perspective, this paper introduces the Swarm Policy Interference Network (SPIN) framework, which models multi-agent communication topologies as compressed tensor networks. By factorizing the joint policy tensors of local multi-agent cliques into Open Boundary Condition Matrix Product State (MPS) chains, SPIN replaces explicit exponential joint-action enumeration with clique-level contractions that scale linearly in clique length for fixed local behavior and bond dimensions. To connect raw spatial geometry with this discrete algebraic backend without relying on online training loops, we introduce a decoupled framework combining a lightweight frozen neural mapper evaluated offline with a deterministic zero-shot importance-reweighting filter based on the Radon-Nikod\'ym derivative. We evaluate an executable prototype of this framework within a simulation experiment across distinct task regimes: single-target tracking, decentralized area coverage, and structured multi-goal coordination. The results demonstrate that SPIN functions as a reusable decentralized coordination layer across tracking, dispersion / area coverage, and structured multi-goal coordination, with its strongest gains appearing in multi-goal coordination and dense local interaction regimes, without requiring scenario-specific online optimization or retraining.

Abstract:Decentralized multi-agent swarm coordination remains fundamentally challenged by the combinatorial scaling of joint action spaces and high-overhead training or optimization loops when managing localized group behaviors. To address this problem from a different perspective, this paper introduces the Swarm Policy Interference Network (SPIN) framework, which models multi-agent communication topologies as compressed tensor networks. By factorizing the joint policy tensors of local multi-agent cliques into Open Boundary Condition Matrix Product State (MPS) chains, SPIN replaces explicit exponential joint-action enumeration with clique-level contractions that scale linearly in clique length for fixed local behavior and bond dimensions. To connect raw spatial geometry with this discrete algebraic backend without relying on online training loops, we introduce a decoupled framework combining a lightweight frozen neural mapper evaluated offline with a deterministic zero-shot importance-reweighting filter based on the Radon-Nikodým derivative. We evaluate an executable prototype of this framework within a simulation experiment across distinct task regimes: single-target tracking, decentralized area coverage, and structured multi-goal coordination. The results demonstrate that SPIN functions as a reusable decentralized coordination layer across tracking, dispersion / area coverage, and structured multi-goal coordination, with its strongest gains appearing in multi-goal coordination and dense local interaction regimes, without requiring scenario-specific online optimization or retraining.

Machine Learning (cs.LG); Multiagent Systems (cs.MA); Social and Information Networks (cs.SI)

arXiv:2606.07557 [cs.LG]

(or arXiv:2606.07557v2 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2606.07557 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 301 words

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