DocumentCode
110021
Title
A New SVM Method for an Indirect Matrix Converter With Common-Mode Voltage Reduction
Author
Nguyen, T.D. ; Hong-Hee Lee
Author_Institution
Fac. of Electr. & Electron. Eng., HoChiMinh City Univ. of Technol., Ho Chi Minh City, Vietnam
Volume
10
Issue
1
fYear
2014
fDate
Feb. 2014
Firstpage
61
Lastpage
72
Abstract
A new space vector modulation (SVM) process for use in an indirect matrix converter (IMC) has been proposed in this paper to reduce the common-mode voltage (CMV) in a high voltage transfer ratio. The principles of selecting suitable active vectors and then properly arranging the switching sequence in the inverter stage of the IMC are described. The IMC with the new SVM method significantly reduces the peak-to-peak voltage of the CMV without any extra hardware. The new SVM method has some other advantages such as a lower total harmonic distortion of line-to-line output voltage and a reduced switching loss at the inverter stage through a minimum number of switching commutations as compared to the conventional reduced CMV-SVM method. The proposed modulation can be easily implemented in software without any additional hardware modifications. Both simulation and experimental results are shown to demonstrate that the new SVM method can generate good performance of the input/output waveforms and provide CMV reduction.
Keywords
harmonic distortion; matrix convertors; switching convertors; CMV reduction; active vectors; common-mode voltage reduction; hardware modification; high-voltage transfer ratio; indirect matrix converter; input-output waveforms; inverter stage; line-to-line output voltage; peak-to-peak voltage; reduced CMV-SVM method; reduced switching loss; space vector modulation process; switching commutations; switching sequence; total harmonic distortion; Common-mode voltage (CMV); indirect matrix converter (IMC); space vector modulation (SVM); voltage transfer ratio;
fLanguage
English
Journal_Title
Industrial Informatics, IEEE Transactions on
Publisher
ieee
ISSN
1551-3203
Type
jour
DOI
10.1109/TII.2013.2255032
Filename
6488837
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