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arXiv 2502.07595cs.RO
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时变空间过程的分布式覆盖控制

Distributed Coverage Control for Time-Varying Spatial Processes

University of Modena and Reggio Emilia(摩德纳-雷焦艾米利亚大学);University of Cambridge(剑桥大学)

Federico Pratissoli, Mattia Mantovani, Amanda Prorok, Lorenzo Sabattini

AI总结:

针对未知且时变的空间密度分布环境下多机器人最优覆盖问题,提出一种基于高斯过程(GPs)的全分布式控制策略,动态调整探索-利用权衡,在模拟和实验中验证了有效性。

摘要:

多机器人系统对于环境监测至关重要,尤其适用于跟踪污染、土壤矿物质和水盐度等空间现象。本研究旨在解决在密度分布未知且随时间变化的环境中部署多机器人团队以实现最优覆盖的挑战,其中密度分布描述了感兴趣区域。我们提出一种完全分布式控制策略,利用高斯过程(GPs)对空间场进行建模,并平衡场学习与最优覆盖之间的权衡。与现有方法不同,我们通过处理时变空间场来解决更现实的场景,其中探索-利用权衡随时间动态调整。每个机器人仅使用自身收集的数据和相邻机器人共享的信息进行本地操作。为应对高斯过程的计算限制,该算法通过仅选择与过程估计最相关的样本,高效管理数据量。通过多次模拟和实验评估了所提算法的性能,并结合真实世界数据现象验证了其有效性。

英文摘要:

Multi-robot systems are essential for environmental monitoring, particularly for tracking spatial phenomena like pollution, soil minerals, and water salinity, and more. This study addresses the challenge of deploying a multi-robot team for optimal coverage in environments where the density distribution, describing areas of interest, is unknown and changes over time. We propose a fully distributed control strategy that uses Gaussian Processes (GPs) to model the spatial field and balance the trade-off between learning the field and optimally covering it. Unlike existing approaches, we address a more realistic scenario by handling time-varying spatial fields, where the exploration-exploitation trade-off is dynamically adjusted over time. Each robot operates locally, using only its own collected data and the information shared by the neighboring robots. To address the computational limits of GPs, the algorithm efficiently manages the volume of data by selecting only the most relevant samples for the process estimation. The performance of the proposed algorithm is evaluated through several simulations and experiments, incorporating real-world data phenomena to validate its effectiveness.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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