Distributed Entrapping Control of Multiagent Systems Using Bearing Measurements

This article studies the distributed entrapping control problem of multiple mobile agents based on bearing and velocity measurements. A time-varying entrapping formation with a prescribed shape, which is elastic and rotational with respect to the target is adopted. Such a formation allows agents to...

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Veröffentlicht in:IEEE transactions on automatic control 2021-12, Vol.66 (12), p.5696-5710
Hauptverfasser: Yang, Ziwen, Chen, Cailian, Zhu, Shanying, Guan, Xinping, Feng, Gang
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container_issue 12
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container_title IEEE transactions on automatic control
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creator Yang, Ziwen
Chen, Cailian
Zhu, Shanying
Guan, Xinping
Feng, Gang
description This article studies the distributed entrapping control problem of multiple mobile agents based on bearing and velocity measurements. A time-varying entrapping formation with a prescribed shape, which is elastic and rotational with respect to the target is adopted. Such a formation allows agents to move even in restricted areas while still entrapping the target as a whole. To achieve the entrapping formation based on bearing measurements, a leader-follower structure is adopted, and a design framework integrating formation shape observers, relative position estimators, and distributed controllers is proposed. The rigorous stability analysis of the overall system is also given. It is shown that the stability of the closed loop system is guaranteed if its bearing observability is satisfied. Since the desired formation is determined by the trajectories of the leaders, we characterize the sufficient conditions on the trajectories of the leaders such that the bearing observability of the closed loop system is always satisfied, and the estimation errors and the formation tracking errors converge to zero asymptotically. Simulations verify the effectiveness of the proposed framework.
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A time-varying entrapping formation with a prescribed shape, which is elastic and rotational with respect to the target is adopted. Such a formation allows agents to move even in restricted areas while still entrapping the target as a whole. To achieve the entrapping formation based on bearing measurements, a leader-follower structure is adopted, and a design framework integrating formation shape observers, relative position estimators, and distributed controllers is proposed. The rigorous stability analysis of the overall system is also given. It is shown that the stability of the closed loop system is guaranteed if its bearing observability is satisfied. Since the desired formation is determined by the trajectories of the leaders, we characterize the sufficient conditions on the trajectories of the leaders such that the bearing observability of the closed loop system is always satisfied, and the estimation errors and the formation tracking errors converge to zero asymptotically. 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subjects Agents (artificial intelligence)
Bearing measurements
bearing observability
Closed loop systems
Closed loops
Control stability
distributed control
Feedback control
Formation control
Multi-agent systems
Multiagent systems
Observability
Observers
Stability analysis
target entrapping
time-varying formation control
Time-varying systems
Tracking errors
title Distributed Entrapping Control of Multiagent Systems Using Bearing Measurements
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