Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation

The formation control technique called cluster space control promotes simplified specification and monitoring of the motion of mobile multirobot systems of limited size. Previous paper has established the conceptual foundation of this approach and has experimentally verified and validated its use fo...

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Main Authors: Ignacio Mas, Christopher A. Kitts
Format: Article
Language:English
Published: IEEE 2014-01-01
Series:IEEE Access
Online Access:https://ieeexplore.ieee.org/document/6818372/
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spelling doaj-c796a712c9434b88b980ab201390701a2021-03-29T19:30:13ZengIEEEIEEE Access2169-35362014-01-01255857010.1109/ACCESS.2014.23257426818372Dynamic Control of Mobile Multirobot Systems: The Cluster Space FormulationIgnacio Mas0Christopher A. Kitts1Instituto Tecnologico de Buenos Aires, Consejo Nacional de Investigaciones Cientificas y Tecnicas, Ciudad de Buenos Aires, ArgentinaDepartment of Mechanical Engineering, Santa Clara University, Santa Clara, CA, USAThe formation control technique called cluster space control promotes simplified specification and monitoring of the motion of mobile multirobot systems of limited size. Previous paper has established the conceptual foundation of this approach and has experimentally verified and validated its use for various systems implementing kinematic controllers. In this paper, we briefly review the definition of the cluster space framework and introduce a new cluster space dynamic model. This model represents the dynamics of the formation as a whole as a function of the dynamics of the member robots. Given this model, generalized cluster space forces can be applied to the formation, and a Jacobian transpose controller can be implemented to transform cluster space compensation forces into robot-level forces to be applied to the robots in the formation. Then, a nonlinear model-based partition controller is proposed. This controller cancels out the formation dynamics and effectively decouples the cluster space variables. Computer simulations and experimental results using three autonomous surface vessels and four land rovers show the effectiveness of the approach. Finally, sensitivity to errors in the estimation of cluster model parameters is analyzed.https://ieeexplore.ieee.org/document/6818372/
collection DOAJ
language English
format Article
sources DOAJ
author Ignacio Mas
Christopher A. Kitts
spellingShingle Ignacio Mas
Christopher A. Kitts
Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation
IEEE Access
author_facet Ignacio Mas
Christopher A. Kitts
author_sort Ignacio Mas
title Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation
title_short Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation
title_full Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation
title_fullStr Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation
title_full_unstemmed Dynamic Control of Mobile Multirobot Systems: The Cluster Space Formulation
title_sort dynamic control of mobile multirobot systems: the cluster space formulation
publisher IEEE
series IEEE Access
issn 2169-3536
publishDate 2014-01-01
description The formation control technique called cluster space control promotes simplified specification and monitoring of the motion of mobile multirobot systems of limited size. Previous paper has established the conceptual foundation of this approach and has experimentally verified and validated its use for various systems implementing kinematic controllers. In this paper, we briefly review the definition of the cluster space framework and introduce a new cluster space dynamic model. This model represents the dynamics of the formation as a whole as a function of the dynamics of the member robots. Given this model, generalized cluster space forces can be applied to the formation, and a Jacobian transpose controller can be implemented to transform cluster space compensation forces into robot-level forces to be applied to the robots in the formation. Then, a nonlinear model-based partition controller is proposed. This controller cancels out the formation dynamics and effectively decouples the cluster space variables. Computer simulations and experimental results using three autonomous surface vessels and four land rovers show the effectiveness of the approach. Finally, sensitivity to errors in the estimation of cluster model parameters is analyzed.
url https://ieeexplore.ieee.org/document/6818372/
work_keys_str_mv AT ignaciomas dynamiccontrolofmobilemultirobotsystemstheclusterspaceformulation
AT christopherakitts dynamiccontrolofmobilemultirobotsystemstheclusterspaceformulation
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