PV Energy to Smart Microgrid System Based on Reactive Power Sharing using DC-DC Interfacing Converter

Authors

  • Sanjeev Kumar, Prof. Ashish Bhargav

Keywords:

Renewable Energy Sources (RES), Photovoltaic, Battery, Smart Grid, Microgrid

Abstract

Currently the utilization of Renewable Energy (RE) as a source of power generation is increasing. Penetration of renewable energy source on a large scale will greatly affect the quality and reliability of electric power systems, due to the intermittent renewable energy sources. Therefore it is necessary to develop a technology to compensate the intermittent energy resources. The smart grid or microgrid technology has the ability to deal with this intermittent characteristic especially while these renewable energy resources integrated to grid in large scale, so improved the reliability and efficiency of that grid. These sources modeling and simulation is performed for optimal power flow based on power flow chart for demand-side management. The designed system fulfills realistic operation for the power system, based on fundamentals. The constraints are lively for synchronizing of voltage, frequency and waveform at the PCC for grid integration with RES. Also, these are beneficial for the switching of protective devices through remote monitoring and control. Finally, with these features, the developed system testing are conceded for linear, nonlinear and dynamic loading. These results are proximate to the specified tolerance at different universal morals.

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How to Cite

Sanjeev Kumar, Prof. Ashish Bhargav. (2022). PV Energy to Smart Microgrid System Based on Reactive Power Sharing using DC-DC Interfacing Converter. International Journal of Research & Technology, 10(1), 132–135. Retrieved from https://ijrt.org/j/article/view/461

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