Analysis of the Effects of Hard Shading Pattern on I–V Performance Curve

Complex shading on a photovoltaic (PV) module has a disproportionate impact on its power production. Minimizing power losses is critical in the installation of the PV module since it can greatly diminish the module’s performance and capacity to generate electricity. Thorough examination of the conse...

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Veröffentlicht in:Applied solar energy 2023-08, Vol.59 (4), p.369-377
Hauptverfasser: Ismail, Mohd Azlan, Adil, Nur Lyana Jasmin, Yan, Farm Yan, Amaludin, Nazrein, Bohari, Nuramalina, Sar-ee, Sherena
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container_end_page 377
container_issue 4
container_start_page 369
container_title Applied solar energy
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creator Ismail, Mohd Azlan
Adil, Nur Lyana Jasmin
Yan, Farm Yan
Amaludin, Nazrein
Bohari, Nuramalina
Sar-ee, Sherena
description Complex shading on a photovoltaic (PV) module has a disproportionate impact on its power production. Minimizing power losses is critical in the installation of the PV module since it can greatly diminish the module’s performance and capacity to generate electricity. Thorough examination of the consequences of hard shading on the PV modules is necessary to lower power losses and maximize the module’s efficacy. This paper presents the background and findings from three different types of PV module (Full Cell, Half-Cut and Shingle PV module) operated under a variety of shading pattern (horizontal, vertical, and diagonal), and obscuring percentage (25, 50, and 75%). Experiments are conducted in a location at Sabah, a state located within Malaysia. Sabah which has a tropical climate with high temperatures and humidity, along with consistent level of solar radiation throughout the year making it well-suited for solar energy production. The experimental technique, which involved testing PV modules under various shading patterns and percentages, was found to be highly accurate in determining the amount of shading loss, particularly in instances of hard shading. The findings are presented by I – V and P – V curve that was traced by using a portable PV power meter (SEAWARD PV200) relating the pattern and percentage of shading to maximum power point (MPP) and power losses of the PV modules.
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subjects Direct Conversion of Solar Energy into Electrical Energy
Electric power generation
Electric power loss
Electrical Machines and Networks
Engineering
High temperature
Maximum power
Photovoltaic cells
Photovoltaics
Power Electronics
Shading
Solar energy
Solar radiation
title Analysis of the Effects of Hard Shading Pattern on I–V Performance Curve
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