Event-triggered adaptive consensus of heterogeneous multi-agent system under communication and actuator faults

Leyi Zheng; Yimin Zhou

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arXiv · 2401.13492

Event-triggered adaptive consensus of heterogeneous multi-agent system under communication and actuator faults

Leyi Zheng·Yimin Zhou

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Abstract

In this paper, a heterogeneous leader-followers multiagent system is studied under simultaneous time-varying communication faults and actuator faults. First, the state of the leader is modelled as the closed-loop reference model where the states of the direct-connected followers are fed to the leader to improve the leader-followers tracking capability. An event-triggered communication mechanism is then designed for the agent information sharing among its neighbors so as to reduce the communication burden. Considering the time-varying communication link failure, a new distributed event-triggered observer is designed for each follower to estimate the whole system states so as to reduce the state error, whereas an adaptive distributed event-triggered estimator is further designed for the nondirect connected followers to estimate the coefficient matrix of the leader system. Further, an estimator is designed for the actuator fault estimation to reduce their impact on the system consistency. Hence, an adaptive event-triggered control strategy is proposed to ensure the consistency of the leader-follower system under the time-varying communication link faults and actuator faults. It is also shown that Zeno behavior is excluded for each agent and the effectiveness of the proposed adaptive event-triggered control strategy is verified on the heterogeneous multi-agent system.

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BibTeX RIS

Leyi Zheng, Yimin Zhou. 2024-01-24. Event-triggered adaptive consensus of heterogeneous multi-agent system under communication and actuator faults. https://arxiv.org/abs/2401.13492

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