Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators

In this paper, an online time self-tuning multi-input�multi-output (MIMO) fuzzy bang-bang controller (FBBC) is proposed for the control of two-link rigid and flexible robot manipulators. Two-link rigid and flexible robot manipulators are highly non-linear plants. The fuzzy control is based on the Ta...

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Main Authors: Marwan A., Farrukh N., Sahari K., Hanim S.
Other Authors: 38361890100
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Published: 2023
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spelling my.uniten.dspace-293822023-12-28T12:12:49Z Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators Marwan A. Farrukh N. Sahari K. Hanim S. 38361890100 56272534200 57218170038 24067645400 Bang-bang control online self-tuning rigid-flexible manipulators Bang bang control systems Feedback control Flexible manipulators Fuzzy control Fuzzy logic Industrial robots MIMO systems Modular robots Robot applications Sliding mode control Steepest descent method Bang-Bang control Different operating conditions Flexible robot manipulators Fuzzy logic controllers Multi input multi output On-line self-tuning Rigid-flexible manipulators Sliding mode controller Controllers In this paper, an online time self-tuning multi-input�multi-output (MIMO) fuzzy bang-bang controller (FBBC) is proposed for the control of two-link rigid and flexible robot manipulators. Two-link rigid and flexible robot manipulators are highly non-linear plants. The fuzzy control is based on the Takagi�Sugeno-type architecture fuzzy model combined with online self-tuning so that both the desired transient and steady-state responses can be achieved. The proposed FBBC is different from a fuzzy logic controller (FLC) in that it has a bi-level output like a relay but with fuzzy inputs. The online self-tuning is based on the gradient of steepest descent tuning method, which tunes the FBBC's input and output gains. The controller operation is demonstrated and compared with a classic FLC and sliding mode controller (SMC) by simulation to highlight its tracking ability and the manipulator's positioning control with rigid and flexible robot types. Based on the simulation results, the proposed controller with this tuning strategy was found to be superior at different operating conditions. � 2012, SAGE Publications. All rights reserved. Final 2023-12-28T04:12:49Z 2023-12-28T04:12:49Z 2013 Article 10.1177/0142331212468373 2-s2.0-84880279093 https://www.scopus.com/inward/record.uri?eid=2-s2.0-84880279093&doi=10.1177%2f0142331212468373&partnerID=40&md5=ab0a44a2213f629db8d7374ef7a0f997 https://irepository.uniten.edu.my/handle/123456789/29382 35 6 730 741 Scopus
institution Universiti Tenaga Nasional
building UNITEN Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tenaga Nasional
content_source UNITEN Institutional Repository
url_provider http://dspace.uniten.edu.my/
topic Bang-bang control
online self-tuning
rigid-flexible manipulators
Bang bang control systems
Feedback control
Flexible manipulators
Fuzzy control
Fuzzy logic
Industrial robots
MIMO systems
Modular robots
Robot applications
Sliding mode control
Steepest descent method
Bang-Bang control
Different operating conditions
Flexible robot manipulators
Fuzzy logic controllers
Multi input multi output
On-line self-tuning
Rigid-flexible manipulators
Sliding mode controller
Controllers
spellingShingle Bang-bang control
online self-tuning
rigid-flexible manipulators
Bang bang control systems
Feedback control
Flexible manipulators
Fuzzy control
Fuzzy logic
Industrial robots
MIMO systems
Modular robots
Robot applications
Sliding mode control
Steepest descent method
Bang-Bang control
Different operating conditions
Flexible robot manipulators
Fuzzy logic controllers
Multi input multi output
On-line self-tuning
Rigid-flexible manipulators
Sliding mode controller
Controllers
Marwan A.
Farrukh N.
Sahari K.
Hanim S.
Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
description In this paper, an online time self-tuning multi-input�multi-output (MIMO) fuzzy bang-bang controller (FBBC) is proposed for the control of two-link rigid and flexible robot manipulators. Two-link rigid and flexible robot manipulators are highly non-linear plants. The fuzzy control is based on the Takagi�Sugeno-type architecture fuzzy model combined with online self-tuning so that both the desired transient and steady-state responses can be achieved. The proposed FBBC is different from a fuzzy logic controller (FLC) in that it has a bi-level output like a relay but with fuzzy inputs. The online self-tuning is based on the gradient of steepest descent tuning method, which tunes the FBBC's input and output gains. The controller operation is demonstrated and compared with a classic FLC and sliding mode controller (SMC) by simulation to highlight its tracking ability and the manipulator's positioning control with rigid and flexible robot types. Based on the simulation results, the proposed controller with this tuning strategy was found to be superior at different operating conditions. � 2012, SAGE Publications. All rights reserved.
author2 38361890100
author_facet 38361890100
Marwan A.
Farrukh N.
Sahari K.
Hanim S.
format Article
author Marwan A.
Farrukh N.
Sahari K.
Hanim S.
author_sort Marwan A.
title Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
title_short Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
title_full Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
title_fullStr Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
title_full_unstemmed Real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
title_sort real-time on line tuning of fuzzy controller for two-link rigid�flexible robot manipulators
publishDate 2023
_version_ 1806424003508699136
score 13.222552