Harmonic Analysis and Control Strategy of a Three-Phase Three-Level Rectifier
Sergey V. Brovanov
Abstract
Sergey V. Brovanov
Abstract
The paper presents a control algorithm of the three-level rectifier in the three-phase voltage source converter, as well as a theoretical method for harmonic analysis of the input current rectifier. A control algorithm is based on the input current transformation into the d, q coordinate reference frame. The control strategy and harmonic analysis is considered in detail with the focus on the power factor correction and dc-link voltage estimation. The major advantage of using the three-level circuit is that the generated input current harmonics of the three-level rectifier are less than conventional three-phase diode bridge rectifier. The proposed control algorithm and theoretical method are verified by the computer simulation; the results are presented and discussed.
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The paper presents a control algorithm of the three-level rectifier in the three-phase voltage source converter, as well as a theoretical method for harmonic analysis of the input current rectifier. A control algorithm is based on the input current transformation into the d, q coordinate reference frame. The control strategy and harmonic analysis is considered in detail with the focus on the power factor correction and dc-link voltage estimation. The major advantage of using the three-level circuit is that the generated input current harmonics of the three-level rectifier are less than conventional three-phase diode bridge rectifier. The proposed control algorithm and theoretical method are verified by the computer simulation; the results are presented and discussed.
Key concepts: Rectifier (neural networks), Precision rectifier, Harmonics, Power factor, Harmonic, Computer science, Control theory (sociology), Peak inverse voltage