DocumentCode
1055122
Title
Oscillator Models and Collective Motion
Author
Paley, Derek A. ; Leonard, Naomi Ehrich ; Sepulchre, Rodolphe ; Grünbaum, Daniel ; Parrish, Julia K.
Author_Institution
Princeton Univ., New Jersey
Volume
27
Issue
4
fYear
2007
Firstpage
89
Lastpage
105
Abstract
This article describes PCOD, a cooperative control framework for stabilizing relative equilibria in a model of self-propelled, steered particles moving in the plane at unit speed. Relative equilibria correspond either to motion of all of the particles in the same direction or to motion of all of the particles around the same circle. Although the framework applies to time-varying and directed interaction between individuals, we focus here on time-invariant and undirected interaction, using the Laplacian matrix of the interaction graph to design a set of decentralized control laws applicable to mobile sensor networks. Since the direction of motion of each particle is represented in the framework by a point on the unit circle, the closed-loop model has coupled-phase oscillator dynamics.
Keywords
cooperative systems; decentralised control; graph theory; motion control; Laplacian matrix; biological network; closed-loop model; collective motion; cooperative control; coupled oscillator dynamics; coupled-phase oscillator dynamics; decentralized control law; interaction graph; mobile sensor network; oscillator model; relative equilibria stabilization; spatial pattern; steered particles; time-invariant interaction; undirected interaction; Bifurcation; Control systems; Frequency synchronization; Inverse problems; Josephson junctions; Motion analysis; Motion control; Neurons; Oscillators; Pacemakers;
fLanguage
English
Journal_Title
Control Systems, IEEE
Publisher
ieee
ISSN
1066-033X
Type
jour
DOI
10.1109/MCS.2007.384123
Filename
4272331
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