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Global Synchronization of Clocks in Directed Rooted Acyclic Graphs: A Hybrid Systems Approach

机译:针对根的环形图中的时钟全局同步:混合系统方法

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In this paper, we study the problem of robust global synchronization of resetting clocks in multi-agent networked systems, where by robust global synchronization we mean synchronization that can be achieved from all initial conditions and is insensitive to small perturbations. In particular, we address the following question: Given a set of homogeneous agents with periodic clocks, what kind of information flow topologies will guarantee that the resulting networked systems can achieve robust global synchronization? To address the question, we rely on the use of robust hybrid dynamical systems. Using the hybrid-system approach, we provide a partial solution to the question: Specifically, we show that one can achieve robust global synchronization if the underlying information flow topology is a rooted acyclic digraph. Such a result is complementary to the existing results in [1] and [2] by Poveda & Teel, in which strongly connected digraphs are considered as the underlying information flow topologies of the networked systems. We have further computed an upper bound on the convergence time for a networked system to reach global synchronization. In particular, the computation reveals the relationship between convergence time and the structure of the underlying digraph. We illustrate our theoretical findings via numerical simulations toward the end of the paper.
机译:在本文中,我们研究了多代理网络系统中重置时钟的鲁棒全局同步的问题,其中稳健的全局同步我们的意思是可以从所有初始条件实现的同步,并且对小扰动不敏感。特别地,我们解决了以下问题:给定一套具有周期性时钟的同类代理,什么样的信息流拓扑将保证所产生的网络系统可以实现强大的全局同步?为了解决这个问题,我们依靠使用强大的混合动态系统。使用混合系统方法,我们提供了一个问题的部分解决方案:具体来说,如果底层信息流拓扑是根的非循环数字,我们表明可以实现强大的全局同步。这种结果与Poveda&Teel的[1]和[2]中的现有结果互补,其中强烈连接的数字被认为是网络系统的基础信息流拓扑。我们进一步计算了联网系统的收敛时间上的上限,以达到全局同步。特别地,计算揭示了收敛时间与底层数字的结构之间的关系。我们通过对纸张结束的数值模拟来说明我们的理论发现。

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