Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System

The Finite-Set Model Predictive Power Control (FS-PPC) is one of the most intriguing model predictive approaches for the induction machine. This control is successful because it operates without weight coefficients and does not require the rotor flux position, as in the Predictive Torque Control (FS...

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Main Authors: Yanis Hamoudi, Hocine Amimeur, Sabrina Nacef
Format: Article
Language:English
Published: OICC Press 2023-09-01
Series:Majlesi Journal of Electrical Engineering
Subjects:
Online Access:https://oiccpress.com/mjee/article/view/5023
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author Yanis Hamoudi
Hocine Amimeur
Sabrina Nacef
author_facet Yanis Hamoudi
Hocine Amimeur
Sabrina Nacef
author_sort Yanis Hamoudi
collection DOAJ
description The Finite-Set Model Predictive Power Control (FS-PPC) is one of the most intriguing model predictive approaches for the induction machine. This control is successful because it operates without weight coefficients and does not require the rotor flux position, as in the Predictive Torque Control (FS-PTC) and the Predictive Current Control (FS-PCC), respectively. A simple extension to the double-star induction generator results in significant current harmonics and common mode voltage. To fix these issues, this paper proposes an improved FS-PPC applied to an asymmetric double-star induction generator based wind energy conversion system by introducing two concepts: (a) the virtual voltage vector (VVV), in order to eliminate the (x, y) components of the stator currents. (b) the zero common mode voltage vectors (ZCMV), to eliminate the common mode voltage. A simulation of the developed ZCMV-FS-PPC system control is created in MATLAB/Simulink. The results show the effectiveness of this approach with CMV equal to zero and negligible (x, y) components of the stator currents. Moreover, the elimination of the CMV not only avoids its damage but also reduces the computation by 50%.
format Article
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institution DOAJ
issn 2345-377X
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language English
publishDate 2023-09-01
publisher OICC Press
record_format Article
series Majlesi Journal of Electrical Engineering
spelling doaj-art-17bde1be4af14a9e94371233bfa26d1a2025-08-20T02:43:38ZengOICC PressMajlesi Journal of Electrical Engineering2345-377X2345-37962023-09-0117310.30486/mjee.2023.1983159.1102Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion SystemYanis HamoudiHocine AmimeurSabrina NacefThe Finite-Set Model Predictive Power Control (FS-PPC) is one of the most intriguing model predictive approaches for the induction machine. This control is successful because it operates without weight coefficients and does not require the rotor flux position, as in the Predictive Torque Control (FS-PTC) and the Predictive Current Control (FS-PCC), respectively. A simple extension to the double-star induction generator results in significant current harmonics and common mode voltage. To fix these issues, this paper proposes an improved FS-PPC applied to an asymmetric double-star induction generator based wind energy conversion system by introducing two concepts: (a) the virtual voltage vector (VVV), in order to eliminate the (x, y) components of the stator currents. (b) the zero common mode voltage vectors (ZCMV), to eliminate the common mode voltage. A simulation of the developed ZCMV-FS-PPC system control is created in MATLAB/Simulink. The results show the effectiveness of this approach with CMV equal to zero and negligible (x, y) components of the stator currents. Moreover, the elimination of the CMV not only avoids its damage but also reduces the computation by 50%.https://oiccpress.com/mjee/article/view/5023double-star induction generatorPredictive power controlvirtual voltage vectorWind Energy Conversion System.zero common mode voltage
spellingShingle Yanis Hamoudi
Hocine Amimeur
Sabrina Nacef
Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System
Majlesi Journal of Electrical Engineering
double-star induction generator
Predictive power control
virtual voltage vector
Wind Energy Conversion System.
zero common mode voltage
title Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System
title_full Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System
title_fullStr Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System
title_full_unstemmed Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System
title_short Finite-Set Model Predictive Power Control with Common Mode Voltage Elimination for an Asymmetrical Double-Star Induction Generator Wind Energy Conversion System
title_sort finite set model predictive power control with common mode voltage elimination for an asymmetrical double star induction generator wind energy conversion system
topic double-star induction generator
Predictive power control
virtual voltage vector
Wind Energy Conversion System.
zero common mode voltage
url https://oiccpress.com/mjee/article/view/5023
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AT hocineamimeur finitesetmodelpredictivepowercontrolwithcommonmodevoltageeliminationforanasymmetricaldoublestarinductiongeneratorwindenergyconversionsystem
AT sabrinanacef finitesetmodelpredictivepowercontrolwithcommonmodevoltageeliminationforanasymmetricaldoublestarinductiongeneratorwindenergyconversionsystem