An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control

The design of PV-based high gain SEPIC converter integrated with four-switch strategy, which has been used to achieve sensorless speed control of Permanent magnet Brushless DC motor (PMBLDC) is analysed in this work. Hence SEPIC converter coupled with Fuzzy Logic, MPPT Algorithm is employed to retai...

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Autores principales: Poovizhi Mani, Senthil Kumaran Mahadevan, Anitha Roseline Johnson, Murugesan Kullan
Formato: article
Lenguaje:EN
Publicado: Taylor & Francis Group 2022
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Acceso en línea:https://doaj.org/article/2adb258acd6944b5857663d3b05d69e1
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spelling oai:doaj.org-article:2adb258acd6944b5857663d3b05d69e12021-12-01T14:40:58ZAn optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control0005-11441848-338010.1080/00051144.2021.2008621https://doaj.org/article/2adb258acd6944b5857663d3b05d69e12022-01-01T00:00:00Zhttp://dx.doi.org/10.1080/00051144.2021.2008621https://doaj.org/toc/0005-1144https://doaj.org/toc/1848-3380The design of PV-based high gain SEPIC converter integrated with four-switch strategy, which has been used to achieve sensorless speed control of Permanent magnet Brushless DC motor (PMBLDC) is analysed in this work. Hence SEPIC converter coupled with Fuzzy Logic, MPPT Algorithm is employed to retain voltage. SEPIC converter is chosen as it has a continuous current operation with high gain; Fuzzy MPPT algorithm is used as it provides accurate results faster while the classical MPPT techniques provide the results with fluctuations in attaining the maximum power. Regarding the sensorless control of PMBLDC motor, the conventional six-switch strategy is replaced by four-switch strategy and the sensors are replaced by back EMF method. Four-switch strategy has the capability of reducing the losses, size, cost and complexity of control. For achieving the nominal speed, a closed-loop control is implemented with PI controller, which is tuned by GWO technique. The proposed methodology is more efficient as the motor speed remains unchanged even under the full load condition. The end result of traditional PI algorithm and PI algorithm, which have been tuned by GWO algorithm, is compared and simulated through MATLAB. This is also implemented and validated in hardware by FPGA Spartan 6E controller.Poovizhi ManiSenthil Kumaran MahadevanAnitha Roseline JohnsonMurugesan KullanTaylor & Francis Grouparticlebldc motorsepic converterfour-switch vsipi controllerspeed controlgwo algorithmfuzzy logic mppt algorithmControl engineering systems. Automatic machinery (General)TJ212-225AutomationT59.5ENAutomatika, Vol 63, Iss 1, Pp 90-101 (2022)
institution DOAJ
collection DOAJ
language EN
topic bldc motor
sepic converter
four-switch vsi
pi controller
speed control
gwo algorithm
fuzzy logic mppt algorithm
Control engineering systems. Automatic machinery (General)
TJ212-225
Automation
T59.5
spellingShingle bldc motor
sepic converter
four-switch vsi
pi controller
speed control
gwo algorithm
fuzzy logic mppt algorithm
Control engineering systems. Automatic machinery (General)
TJ212-225
Automation
T59.5
Poovizhi Mani
Senthil Kumaran Mahadevan
Anitha Roseline Johnson
Murugesan Kullan
An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control
description The design of PV-based high gain SEPIC converter integrated with four-switch strategy, which has been used to achieve sensorless speed control of Permanent magnet Brushless DC motor (PMBLDC) is analysed in this work. Hence SEPIC converter coupled with Fuzzy Logic, MPPT Algorithm is employed to retain voltage. SEPIC converter is chosen as it has a continuous current operation with high gain; Fuzzy MPPT algorithm is used as it provides accurate results faster while the classical MPPT techniques provide the results with fluctuations in attaining the maximum power. Regarding the sensorless control of PMBLDC motor, the conventional six-switch strategy is replaced by four-switch strategy and the sensors are replaced by back EMF method. Four-switch strategy has the capability of reducing the losses, size, cost and complexity of control. For achieving the nominal speed, a closed-loop control is implemented with PI controller, which is tuned by GWO technique. The proposed methodology is more efficient as the motor speed remains unchanged even under the full load condition. The end result of traditional PI algorithm and PI algorithm, which have been tuned by GWO algorithm, is compared and simulated through MATLAB. This is also implemented and validated in hardware by FPGA Spartan 6E controller.
format article
author Poovizhi Mani
Senthil Kumaran Mahadevan
Anitha Roseline Johnson
Murugesan Kullan
author_facet Poovizhi Mani
Senthil Kumaran Mahadevan
Anitha Roseline Johnson
Murugesan Kullan
author_sort Poovizhi Mani
title An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control
title_short An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control
title_full An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control
title_fullStr An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control
title_full_unstemmed An optimized design modelling of PV integrated SEPIC-based four-switch inverter for sensorless PMBLDC motor control
title_sort optimized design modelling of pv integrated sepic-based four-switch inverter for sensorless pmbldc motor control
publisher Taylor & Francis Group
publishDate 2022
url https://doaj.org/article/2adb258acd6944b5857663d3b05d69e1
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