Convergence Analysis using the Edge Laplacian: Robust Consensus of Nonlinear Multi-agent Systems via ISS Method
Zhiwen Zeng, Xiangke Wang, Zhiqiang Zheng

TL;DR
This paper introduces a novel edge Laplacian framework for analyzing and achieving robust consensus in nonlinear multi-agent systems, effectively handling disturbances and nonlinearities through a new graph-theoretic approach and ISS method.
Contribution
It develops an innovative edge Laplacian matrix representation, linking consensus and edge agreement, and proposes a robust consensus protocol using cyclic-small-gain theorem and edge-interconnection graph.
Findings
Successful handling of disturbances and nonlinear dynamics in consensus
Introduction of edge-interconnection graph concept
Verification through simulation results
Abstract
This study develops an original and innovative matrix representation with respect to the information flow for networked multi-agent system. To begin with, the general concepts of the edge Laplacian of digraph are proposed with its algebraic properties. Benefit from this novel graph-theoretic tool, we can build a bridge between the consensus problem and the edge agreement problem; we also show that the edge Laplacian sheds a new light on solving the leaderless consensus problem. Based on the edge agreement framework, the technical challenges caused by unknown but bounded disturbances and inherently nonlinear dynamics can be well handled. In particular, we design an integrated procedure for a new robust consensus protocol that is based on a blend of algebraic graph theory and the newly developed cyclic-small-gain theorem. Besides, to highlight the intricate relationship between the…
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Taxonomy
TopicsDistributed Control Multi-Agent Systems · Neural Networks Stability and Synchronization · Advanced Memory and Neural Computing
