An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter
The main aim of the paper is to find a control method for a multilevel matrix converter (MMC) that enables the elimination of common mode voltage (CMV). The method discussed in the paper is based on a selection of converter configurations and the instantaneous output voltages of MMC represented by r...
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doaj-bd6b23b0c9844e8c8fa15c2cf593115f2020-11-24T20:51:29ZengMDPI AGElectronics2079-92922019-02-018219010.3390/electronics8020190electronics8020190An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix ConverterJanina Rząsa0Department of Power Electronics and Power Engineering, Rzeszow University of Technology, 35-959 Rzeszow, PolandThe main aim of the paper is to find a control method for a multilevel matrix converter (MMC) that enables the elimination of common mode voltage (CMV). The method discussed in the paper is based on a selection of converter configurations and the instantaneous output voltages of MMC represented by rotating space vectors. The choice of appropriate configurations is realized by the use of space vector modulation (SVM), with the application of Venturini modulation functions. A multilevel matrix converter, which utilizes a multilevel structure in a traditional matrix converter (MC), can achieve an improved output voltage waveform quality, compared with the output voltage of MC. The carrier-based implementation of SVM is presented in this paper. The carrier-based implementation of SVM avoids any trigonometric and division operations, which could be required in a general space vector approach to the SVM method. With use of the proposed control method, a part of the high-frequency output voltage distortion components is eliminated. The application of the presented modulation method eliminates the CMV in MMC what is presented in the paper. Additionally, the possibility to control the phase shift between the appropriate input and output phase voltages is obtained by the presented control strategy. The results of the simulation and experiment confirm the utility of the proposed modulation method.https://www.mdpi.com/2079-9292/8/2/190multilevel matrix converterrotating voltage space vectorcommon move voltagespace vector pulse width modulationventurini control method |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Janina Rząsa |
spellingShingle |
Janina Rząsa An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter Electronics multilevel matrix converter rotating voltage space vector common move voltage space vector pulse width modulation venturini control method |
author_facet |
Janina Rząsa |
author_sort |
Janina Rząsa |
title |
An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter |
title_short |
An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter |
title_full |
An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter |
title_fullStr |
An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter |
title_full_unstemmed |
An Alternative Carrier-Based Implementation of Space Vector Modulation to Eliminate Common Mode Voltage in a Multilevel Matrix Converter |
title_sort |
alternative carrier-based implementation of space vector modulation to eliminate common mode voltage in a multilevel matrix converter |
publisher |
MDPI AG |
series |
Electronics |
issn |
2079-9292 |
publishDate |
2019-02-01 |
description |
The main aim of the paper is to find a control method for a multilevel matrix converter (MMC) that enables the elimination of common mode voltage (CMV). The method discussed in the paper is based on a selection of converter configurations and the instantaneous output voltages of MMC represented by rotating space vectors. The choice of appropriate configurations is realized by the use of space vector modulation (SVM), with the application of Venturini modulation functions. A multilevel matrix converter, which utilizes a multilevel structure in a traditional matrix converter (MC), can achieve an improved output voltage waveform quality, compared with the output voltage of MC. The carrier-based implementation of SVM is presented in this paper. The carrier-based implementation of SVM avoids any trigonometric and division operations, which could be required in a general space vector approach to the SVM method. With use of the proposed control method, a part of the high-frequency output voltage distortion components is eliminated. The application of the presented modulation method eliminates the CMV in MMC what is presented in the paper. Additionally, the possibility to control the phase shift between the appropriate input and output phase voltages is obtained by the presented control strategy. The results of the simulation and experiment confirm the utility of the proposed modulation method. |
topic |
multilevel matrix converter rotating voltage space vector common move voltage space vector pulse width modulation venturini control method |
url |
https://www.mdpi.com/2079-9292/8/2/190 |
work_keys_str_mv |
AT janinarzasa analternativecarrierbasedimplementationofspacevectormodulationtoeliminatecommonmodevoltageinamultilevelmatrixconverter AT janinarzasa alternativecarrierbasedimplementationofspacevectormodulationtoeliminatecommonmodevoltageinamultilevelmatrixconverter |
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1716802193998217216 |