Paper Info
Title
Model Predictive Virtual-Flux Control of Three-Phase Vienna Rectifier Without Voltage Sensors.
Abstract
In this paper, a finite-control-set model predictive virtual-flux control (FCS-MPVFC) for a three-phase Vienna rectifier is developed and implemented to achieve voltage sensorless control, which is very robust to distorted grid-side voltage operation. Firstly, by investigating the relationship between virtual-fluxes aroused from grid-side voltages and line voltages in $d$ -$q$ frame, the control object is directly associated with virtual-flux tracking error minimization. Secondly, the reference line virtual-flux is calculated based on the controllability of active/reactive power associated with the delay compensation and load angle. Thirdly, to enhance the steady-state performance, switching sequence rather than single switching vector is utilized during one sampling period. Furthermore, a redundant vector pre-selection is adopted to balance the neutral-point voltage. The proposed strategy is compared with the traditional finite-control-set model predictive current control (FCS-MPCC) method. Both simulated and experimental results verify the effectiveness of the proposed control algorithm.
Year
DOI
Venue
2019
10.1109/ACCESS.2019.2956096
IEEE ACCESS
Keywords
DocType
Volume
Rectifiers,Voltage control,Switches,Predictive models,Capacitors,Cost function,Finite-control-set model predictive virtual-flux control,Vienna rectifier,voltage sensorless control,distorted,switching sequence,pre-selection
Journal
7
ISSN
Citations 
PageRank 
2169-3536
0
0.34
References 
Authors
0
4
Name
Order
Citations
PageRank
Feng Yu100.34
Xing Liu200.34
Xinsong Zhang300.34
Zhihao Zhu435.13