DocumentCode
3189186
Title
Simulation and modeling of a photovoltaic system adapted by a MPPT control reaction: Application on a DSIM
Author
Arezki, S. ; Boudour, M.
Author_Institution
Lab. of Ind. & Electr. Syst., Univ. of Sci. &Technol. Houari Boumediene, Algiers, Algeria
fYear
2010
fDate
18-22 Dec. 2010
Firstpage
423
Lastpage
428
Abstract
The present work tries to investigate and exploit the maximum energy delivered by a solar photovoltaic, to power a double star induction motor (DSIM) through two voltages inverters of five levels NPC structure. The proposed cascade consists of two photovoltaic´s sources-two inverters voltages of five-level NPC structure-DSIM. This study shows the volatility of the input voltages of the two inverters and then the instability of supply voltages of the machine, due to the nature of the source issued by the photovoltaic generators. The results also show significant levels of ripple magnitudes with a large response time. In order to stabilize the input voltages of the multilevel inverters, a bridge clamping has been proposed. Using this bridge, the voltages become stable, thus improving the performance of the DSIM. These results are very promising for high power and high voltage in the field of electric traction.
Keywords
induction motors; invertors; machine control; maximum power point trackers; photovoltaic power systems; power system simulation; traction; MPPT control reaction; double star induction motor; electric traction; five-level NPC structure-DSIM; multilevel inverter; photovoltaic generator; photovoltaic system modeling; photovoltaic system simulation; solar photovoltaic; supply voltage instability; voltage inverter; Generators; Integrated circuit modeling; Inverters; Modulation; Photovoltaic systems; Voltage control; DSIM; MPPT control; Modeling; bridge clamping; multilevel NPC inverter; photovoltaic generator; power converter DC-DC;
fLanguage
English
Publisher
ieee
Conference_Titel
Energy Conference and Exhibition (EnergyCon), 2010 IEEE International
Conference_Location
Manama
Print_ISBN
978-1-4244-9378-4
Type
conf
DOI
10.1109/ENERGYCON.2010.5771718
Filename
5771718
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