Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation

Despite being an established and mature technology, Vessel Dynamic Positioning Systems are always in focus for the development of novel control applications in order to increase their operational capacities. Rapid and robust transient response without loss of control accuracy is, for instance, a req...

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Main Authors: Andre S. S. Ianagui, Pedro C. De Mello, Eduardo A. Tannuri
Format: Article
Language:English
Published: IEEE 2020-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9093009/
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spelling doaj-7a559dfcd79547a9b27da807cc3ed2152021-03-30T02:38:11ZengIEEEIEEE Access2169-35362020-01-018917019172410.1109/ACCESS.2020.29945159093009Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental EvaluationAndre S. S. Ianagui0https://orcid.org/0000-0002-2412-2390Pedro C. De Mello1https://orcid.org/0000-0003-2621-9644Eduardo A. Tannuri2https://orcid.org/0000-0001-7040-413XMechatronics Engineering Department, University of São Paulo, São Paulo, BrazilNaval Architecture and Ocean Engineering Department, University of São Paulo, São Paulo, BrazilMechatronics Engineering Department, University of São Paulo, São Paulo, BrazilDespite being an established and mature technology, Vessel Dynamic Positioning Systems are always in focus for the development of novel control applications in order to increase their operational capacities. Rapid and robust transient response without loss of control accuracy is, for instance, a requirement for autonomous operations. Standard technologies currently applied by the industry lack such properties. Emerging methods, such as nonlinear robust control techniques, may help to achieve this goal. This paper proposes using a Super-Twisting Controller, allied with a High Order Sliding Mode Observer to perform the Dynamic Positioning Task. This method provides the robustness of standard Sliding Modes Controllers while keeping accuracy and chattering suppression. A novel nonlinear sliding manifold and wave-frequency filtering is proposed for the Dynamic Positioning problem. The efficacy of this control structure is demonstrated in a series of experimental tests, whereby the subject vessel is controlled while disturbed by wave action.https://ieeexplore.ieee.org/document/9093009/Dynamic positioning systemssuper-twisting controlhigh order sliding modesrobust nonlinear control
collection DOAJ
language English
format Article
sources DOAJ
author Andre S. S. Ianagui
Pedro C. De Mello
Eduardo A. Tannuri
spellingShingle Andre S. S. Ianagui
Pedro C. De Mello
Eduardo A. Tannuri
Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation
IEEE Access
Dynamic positioning systems
super-twisting control
high order sliding modes
robust nonlinear control
author_facet Andre S. S. Ianagui
Pedro C. De Mello
Eduardo A. Tannuri
author_sort Andre S. S. Ianagui
title Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation
title_short Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation
title_full Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation
title_fullStr Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation
title_full_unstemmed Robust Output-Feedback Control in a Dynamic Positioning System via High Order Sliding Modes: Theoretical Framework and Experimental Evaluation
title_sort robust output-feedback control in a dynamic positioning system via high order sliding modes: theoretical framework and experimental evaluation
publisher IEEE
series IEEE Access
issn 2169-3536
publishDate 2020-01-01
description Despite being an established and mature technology, Vessel Dynamic Positioning Systems are always in focus for the development of novel control applications in order to increase their operational capacities. Rapid and robust transient response without loss of control accuracy is, for instance, a requirement for autonomous operations. Standard technologies currently applied by the industry lack such properties. Emerging methods, such as nonlinear robust control techniques, may help to achieve this goal. This paper proposes using a Super-Twisting Controller, allied with a High Order Sliding Mode Observer to perform the Dynamic Positioning Task. This method provides the robustness of standard Sliding Modes Controllers while keeping accuracy and chattering suppression. A novel nonlinear sliding manifold and wave-frequency filtering is proposed for the Dynamic Positioning problem. The efficacy of this control structure is demonstrated in a series of experimental tests, whereby the subject vessel is controlled while disturbed by wave action.
topic Dynamic positioning systems
super-twisting control
high order sliding modes
robust nonlinear control
url https://ieeexplore.ieee.org/document/9093009/
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AT pedrocdemello robustoutputfeedbackcontrolinadynamicpositioningsystemviahighorderslidingmodestheoreticalframeworkandexperimentalevaluation
AT eduardoatannuri robustoutputfeedbackcontrolinadynamicpositioningsystemviahighorderslidingmodestheoreticalframeworkandexperimentalevaluation
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