
doi: 10.1002/rnc.5825
AbstractIn this article, we study the leader‐following formation control problem for a group of rigid body systems whose followers' motions are described by dual quaternion equations. A few features are as follows. First, we introduce an exosystem to generate the leader's trajectory as well as the formation configuration, which can produce a large class of time‐varying signals so that we can achieve a variety of time‐varying formations. Second, to overcome the communication constraint described by a digraph, we extend the distributed observer to estimate not only the desired attitude and angular velocity but also the leader's position and linear velocity. Third, a novel distributed control law is synthesized to furnish a rigorous performance analysis of the closed‐loop system. The effectiveness of our design is illustrated by a numerical example.
Hierarchical systems, adaptive distributed observer, Adaptive control/observation systems, Multi-agent systems, Observers, time-varying formation control, rigid body systems
Hierarchical systems, adaptive distributed observer, Adaptive control/observation systems, Multi-agent systems, Observers, time-varying formation control, rigid body systems
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