GlobeDiff: State Diffusion Process for Partial Observability in Multi-Agent Systems
Yiqin Yang, Xu Yang, Yuhua Jiang, Ni Mu, Hao Hu, Runpeng Xie, Ziyou Zhang, Siyuan Li, Yuan-Hua Ni, Qianchuan Zhao, Bo Xu

TL;DR
GlobeDiff introduces a diffusion-based method for inferring global states in multi-agent systems under partial observability, outperforming existing belief and communication approaches.
Contribution
The paper proposes GlobeDiff, a novel diffusion process model for global state inference that effectively handles ambiguities and improves accuracy in multi-agent systems.
Findings
GlobeDiff achieves higher accuracy in global state inference.
The method effectively bounds estimation errors in various distributions.
Experimental results show superior performance over existing methods.
Abstract
In the realm of multi-agent systems, the challenge of \emph{partial observability} is a critical barrier to effective coordination and decision-making. Existing approaches, such as belief state estimation and inter-agent communication, often fall short. Belief-based methods are limited by their focus on past experiences without fully leveraging global information, while communication methods often lack a robust model to effectively utilize the auxiliary information they provide. To solve this issue, we propose Global State Diffusion Algorithm~(GlobeDiff) to infer the global state based on the local observations. By formulating the state inference process as a multi-modal diffusion process, GlobeDiff overcomes ambiguities in state estimation while simultaneously inferring the global state with high fidelity. We prove that the estimation error of GlobeDiff under both unimodal and…
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Taxonomy
TopicsDistributed Control Multi-Agent Systems · Reinforcement Learning in Robotics · Distributed Sensor Networks and Detection Algorithms
