Reduction of torque ripple in DTC for induction motor using input-output feedback linearization

Direct torque control (DTC) is known to produce fast response and robust control in AC adjustable-speed drives. However, in the steady-state operation, notable torque, flux, and current pulsations occur. In this paper a nonlinear DTC of IM drives is presented based on a Space Vector PWM scheme combi...

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Main Authors: Belkacem Sebti, Naceri Farid, Abdessemed Rachid
Format: Article
Language:English
Published: Faculty of Technical Sciences in Cacak 2011-01-01
Series:Serbian Journal of Electrical Engineering
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/1451-4869/2011/1451-48691102097B.pdf
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spelling doaj-feb12d6107f7451db1382900e02b6d5f2020-11-24T22:25:07ZengFaculty of Technical Sciences in CacakSerbian Journal of Electrical Engineering1451-48692217-71832011-01-01829711010.2298/SJEE1102097B1451-48691102097BReduction of torque ripple in DTC for induction motor using input-output feedback linearizationBelkacem Sebti0Naceri Farid1Abdessemed Rachid2Department of Electrical Engineering, University of Batna, Algeria%SR92-01.80Department of Electrical Engineering, University of Batna, Algeria%SR92-01.80LEB, Department of Electrical Engineering, University of Batna, Algeria%SR92-01.80Direct torque control (DTC) is known to produce fast response and robust control in AC adjustable-speed drives. However, in the steady-state operation, notable torque, flux, and current pulsations occur. In this paper a nonlinear DTC of IM drives is presented based on a Space Vector PWM scheme combined with Input-Output Feedback Linearization (IOFL) technique. The variation of stator and rotor resistance due to changes in temperature or frequency deteriorates the performance of DTC controller by introducing errors in the estimated flux linkage and the electromagnetic torque. As a result, this approach will not be suitable for high power drives such as those used in tractions, as they require good torque control performance at considerably lower frequency. Finally, extensive simulation results are presented to validate the proposed technique. The system is tested at different speeds and a very satisfactory performance has been achieved.http://www.doiserbia.nb.rs/img/doi/1451-4869/2011/1451-48691102097B.pdfDTC-SVPWMkey parameters variationrobustnessinput-output feedback linearization
collection DOAJ
language English
format Article
sources DOAJ
author Belkacem Sebti
Naceri Farid
Abdessemed Rachid
spellingShingle Belkacem Sebti
Naceri Farid
Abdessemed Rachid
Reduction of torque ripple in DTC for induction motor using input-output feedback linearization
Serbian Journal of Electrical Engineering
DTC-SVPWM
key parameters variation
robustness
input-output feedback linearization
author_facet Belkacem Sebti
Naceri Farid
Abdessemed Rachid
author_sort Belkacem Sebti
title Reduction of torque ripple in DTC for induction motor using input-output feedback linearization
title_short Reduction of torque ripple in DTC for induction motor using input-output feedback linearization
title_full Reduction of torque ripple in DTC for induction motor using input-output feedback linearization
title_fullStr Reduction of torque ripple in DTC for induction motor using input-output feedback linearization
title_full_unstemmed Reduction of torque ripple in DTC for induction motor using input-output feedback linearization
title_sort reduction of torque ripple in dtc for induction motor using input-output feedback linearization
publisher Faculty of Technical Sciences in Cacak
series Serbian Journal of Electrical Engineering
issn 1451-4869
2217-7183
publishDate 2011-01-01
description Direct torque control (DTC) is known to produce fast response and robust control in AC adjustable-speed drives. However, in the steady-state operation, notable torque, flux, and current pulsations occur. In this paper a nonlinear DTC of IM drives is presented based on a Space Vector PWM scheme combined with Input-Output Feedback Linearization (IOFL) technique. The variation of stator and rotor resistance due to changes in temperature or frequency deteriorates the performance of DTC controller by introducing errors in the estimated flux linkage and the electromagnetic torque. As a result, this approach will not be suitable for high power drives such as those used in tractions, as they require good torque control performance at considerably lower frequency. Finally, extensive simulation results are presented to validate the proposed technique. The system is tested at different speeds and a very satisfactory performance has been achieved.
topic DTC-SVPWM
key parameters variation
robustness
input-output feedback linearization
url http://www.doiserbia.nb.rs/img/doi/1451-4869/2011/1451-48691102097B.pdf
work_keys_str_mv AT belkacemsebti reductionoftorquerippleindtcforinductionmotorusinginputoutputfeedbacklinearization
AT nacerifarid reductionoftorquerippleindtcforinductionmotorusinginputoutputfeedbacklinearization
AT abdessemedrachid reductionoftorquerippleindtcforinductionmotorusinginputoutputfeedbacklinearization
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