Abstract

In the last two decades, it is persistently emphasized to develop energy generation systems free from greenhouse gas emissions since these gases cause global warming, and it leads to unpredictable monsoons. Consequently, it might not be a conducive environment for human beings and animals to dwell. To ascertain the green environment for the next generations and reduce the use of fossil fuels, renewable energy sources are highly suggested to generate electrical energy. Solar photovoltaic is reckoned to be one of the promising methods to generate electricity; however, it has a lower conversion value due to various losses resulting from external and internal parameters. Among various losses that occurred in the solar photovoltaic system, mismatch loss is imperative, which causes the system to perform poorly. Solar photovoltaic systems have made topical advances in the use of highly effective solar cell materials to achieve high efficiency. In this analysis, performance parameters are influenced by the internal and external conditions of the solar photovoltaic systems and they lead to an increase in the loss of the system. The present review is focused to fetch fruitful information on the several studies that analyzed the effects on the solar photovoltaic systems of parasitic resistances, dust generated by tresses, clouds, solar radiation, temperature, relative humidity, different connection topologies, circuit implementation for partial shading, and remedies suggested by the potential authors.

Highlights

  • The conversion efficiency of the solar photovoltaic (SPV) devices can be improved by minimizing mismatch, temperature, and ohmic losses

  • The mismatch loss of the SPV system was analyzed in the influence of performance parameters, including internal and external conditions

  • The influence of internal parameters like parasitic shunt resistance of different ranges was used in SPV cells, and the impact on current-voltage characteristics was studied

Read more

Summary

Introduction

The conversion efficiency of the solar photovoltaic (SPV) devices can be improved by minimizing mismatch, temperature, and ohmic losses. Insufficient losses in uniform solar radiation are reduced and the power efficiency of the 3 kW SPV system increases by 22.4% by an interval of 1 minute [7, 8]. Mismatch losses are due to electrolightning, infrared imaging, current voltages (I-V), and a wide-range laser-beam scan Based on these data, the effectiveness of SPV cells is assessed [10]. The Bucciarelli equations on analog SPV cell circuits and simulation methods support these findings in theory By comparison, it reduces device efficiency by adding additional components to the SPV unit as it absorbs considerable power from various processes.

Review on Mismatch Losses
Result
Causes of Mismatch Losses
Different Topological Connections
Applications
Merits and Demerits of the SPV System
Conclusions
Findings
Conflicts of Interest
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call