High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes

This paper presents a new multi-scale control scheme which is applicable to both stable and integrating/unstable time-delay processes. The salient feature of the proposed scheme is to decompose a given plant into a sum of basic modes, where an individual sub-controller is specifically designed to co...

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Main Authors: Nandong, Jobrun, Zang, Zhuquan
Format: Journal Article
Published: Elsevier Science Ltd. 2013
Subjects:
Online Access:http://hdl.handle.net/20.500.11937/31018
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author Nandong, Jobrun
Zang, Zhuquan
author_facet Nandong, Jobrun
Zang, Zhuquan
author_sort Nandong, Jobrun
building Curtin Institutional Repository
collection Online Access
description This paper presents a new multi-scale control scheme which is applicable to both stable and integrating/unstable time-delay processes. The salient feature of the proposed scheme is to decompose a given plant into a sum of basic modes, where an individual sub-controller is specifically designed to control each of these modes. An overall multi-scale controller is then synthesized by combining all the sub-controllers in such a way to achieve good cooperation among the different plant modes as to achieve good nominal performance and performance robustness. Extensive numerical study shows that the proposed multi-scale control scheme provides substantial improvement in control performance/robustness over the classical Smith predictor and some of its well-established variants.
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institution Curtin University Malaysia
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publishDate 2013
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spelling curtin-20.500.11937-310182017-09-13T15:11:56Z High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes Nandong, Jobrun Zang, Zhuquan Multi-scale Control PID Time-delay Smith predictor Unstable process This paper presents a new multi-scale control scheme which is applicable to both stable and integrating/unstable time-delay processes. The salient feature of the proposed scheme is to decompose a given plant into a sum of basic modes, where an individual sub-controller is specifically designed to control each of these modes. An overall multi-scale controller is then synthesized by combining all the sub-controllers in such a way to achieve good cooperation among the different plant modes as to achieve good nominal performance and performance robustness. Extensive numerical study shows that the proposed multi-scale control scheme provides substantial improvement in control performance/robustness over the classical Smith predictor and some of its well-established variants. 2013 Journal Article http://hdl.handle.net/20.500.11937/31018 10.1016/j.jprocont.2013.08.007 Elsevier Science Ltd. restricted
spellingShingle Multi-scale Control
PID
Time-delay
Smith predictor
Unstable process
Nandong, Jobrun
Zang, Zhuquan
High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
title High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
title_full High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
title_fullStr High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
title_full_unstemmed High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
title_short High-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
title_sort high-performance multi-scale control scheme for stable, integrating and unstable time-delay processes
topic Multi-scale Control
PID
Time-delay
Smith predictor
Unstable process
url http://hdl.handle.net/20.500.11937/31018