Design and simulation of a solar-wind stand-alone system with a seven-level inverter

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During an energy conversion process, the total harmonic distortion and losses will increase while its power stability decreases. Multilevel inverter technology can be utilized to alleviate the shortcomings of conventional inverters. These technologies have become recognized as cost-effective solutions for a wide range of industrial applications. Reduced component losses and lower switching losses, as well as improved output voltage and current waveforms are the first advantages of this design. In multilayer inverters, elimination of harmonic components in the inverter output voltage and current is crucial. This paper proposes a system that consists of three different renewable energy sources. Two of them are PV solar systems while the third is wind turbine simulated in MATLAB Simulink. Seven-level inverters based on switch reduction techniques are proposed in this paper. The proposed system design is verified in the absence of PV systems to produce five voltage levels as a contingency in PV systems.

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Seven-level inverters, photovoltaic system, wind turbine, maximum power point tracking, pulse width modulation, permanent magnet synchronous generator (pmsg)

Короткий адрес: https://sciup.org/147238631

IDR: 147238631   |   DOI: 10.14529/power220301

Список литературы Design and simulation of a solar-wind stand-alone system with a seven-level inverter

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