Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves

This study presents an approach to investigate microcrack effects on the output characteristics of photovoltaic (PV) modules based on a theoretical model that is derived from the equivalent single-diode model through monitoring data and current-voltage (I-V) curves. Meanwhile, an innovative paramete...

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Main Authors: Feng L., Zhang J., Kiong T.S., Ding K., Amin N., Hamelmann F.U.
Other Authors: 57161726400
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Published: IEEE Electron Devices Society 2024
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spelling my.uniten.dspace-342102024-10-14T11:18:26Z Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves Feng L. Zhang J. Kiong T.S. Ding K. Amin N. Hamelmann F.U. 57161726400 55994334400 57216824752 36642197700 7102424614 6603541611 Electrical characteristics microcrack effects modeling parameter extraction solar energy Analytical models Electric network parameters Extraction Microcracks Open circuit voltage Parameter estimation Parameter extraction Particle swarm optimization (PSO) Photoelectrochemical cells Photovoltaic effects Polycrystalline materials Silicon solar cells Solar panels Solar power generation Stresses Temperature measurement 'current Electrical characteristic Microcrack effect Modeling Module-based Output characteristics Parameters extraction Photovoltaic modules Single-diode models Theoretical modeling Solar energy This study presents an approach to investigate microcrack effects on the output characteristics of photovoltaic (PV) modules based on a theoretical model that is derived from the equivalent single-diode model through monitoring data and current-voltage (I-V) curves. Meanwhile, an innovative parameter optimization algorithm based on particle swarm optimization is developed to extract the parameters. The parametric effects of microcracks on the electrical performance of PV modules are further explored under different meteorological conditions. It was found that the microcracks are formed early without creating inactive areas in solar cells, and the microcrack effects on the output performance of the PV modules are small. The temperature of the normally operating solar cells in a cracked PV module is lower than that of solar cells in a normal PV module. The number of equivalent mismatched solar cells caused by microcracks in the cracked PV module varies continuously with irradiance and temperature. Except for the apparently unaffected I0, microcracks not only greatly reduce the Iph and Rsh but also have a more serious negative impact on the Rs and n of the PV module at high irradiance. Meanwhile, the n-normal, Rs-normal, and Rsh-normal of the normal solar cells and the Rsh-cracks of the cracked solar cells in the cracked PV module are exponentially related to the irradiance. Finally, the experimental validation is effectively implemented to prove the great effectiveness and suitability of the proposed method. The average voltage error of each reconstructed I-V curve based on the extracted parameters and the average errors in Pm, Vm, Im, and Voc of the cracked PV module for 532 I-V curves are 1.15 V, 0.67%, 0.85%, 0.49%, and 0.089%, respectively. � 2011-2012 IEEE. Final 2024-10-14T03:18:26Z 2024-10-14T03:18:26Z 2023 Article 10.1109/JPHOTOV.2023.3275251 2-s2.0-85161015248 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85161015248&doi=10.1109%2fJPHOTOV.2023.3275251&partnerID=40&md5=46e0815da48a200af8f387e1349a9b43 https://irepository.uniten.edu.my/handle/123456789/34210 13 4 558 570 IEEE Electron Devices Society Scopus
institution Universiti Tenaga Nasional
building UNITEN Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tenaga Nasional
content_source UNITEN Institutional Repository
url_provider http://dspace.uniten.edu.my/
topic Electrical characteristics
microcrack effects
modeling
parameter extraction
solar energy
Analytical models
Electric network parameters
Extraction
Microcracks
Open circuit voltage
Parameter estimation
Parameter extraction
Particle swarm optimization (PSO)
Photoelectrochemical cells
Photovoltaic effects
Polycrystalline materials
Silicon solar cells
Solar panels
Solar power generation
Stresses
Temperature measurement
'current
Electrical characteristic
Microcrack effect
Modeling
Module-based
Output characteristics
Parameters extraction
Photovoltaic modules
Single-diode models
Theoretical modeling
Solar energy
spellingShingle Electrical characteristics
microcrack effects
modeling
parameter extraction
solar energy
Analytical models
Electric network parameters
Extraction
Microcracks
Open circuit voltage
Parameter estimation
Parameter extraction
Particle swarm optimization (PSO)
Photoelectrochemical cells
Photovoltaic effects
Polycrystalline materials
Silicon solar cells
Solar panels
Solar power generation
Stresses
Temperature measurement
'current
Electrical characteristic
Microcrack effect
Modeling
Module-based
Output characteristics
Parameters extraction
Photovoltaic modules
Single-diode models
Theoretical modeling
Solar energy
Feng L.
Zhang J.
Kiong T.S.
Ding K.
Amin N.
Hamelmann F.U.
Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves
description This study presents an approach to investigate microcrack effects on the output characteristics of photovoltaic (PV) modules based on a theoretical model that is derived from the equivalent single-diode model through monitoring data and current-voltage (I-V) curves. Meanwhile, an innovative parameter optimization algorithm based on particle swarm optimization is developed to extract the parameters. The parametric effects of microcracks on the electrical performance of PV modules are further explored under different meteorological conditions. It was found that the microcracks are formed early without creating inactive areas in solar cells, and the microcrack effects on the output performance of the PV modules are small. The temperature of the normally operating solar cells in a cracked PV module is lower than that of solar cells in a normal PV module. The number of equivalent mismatched solar cells caused by microcracks in the cracked PV module varies continuously with irradiance and temperature. Except for the apparently unaffected I0, microcracks not only greatly reduce the Iph and Rsh but also have a more serious negative impact on the Rs and n of the PV module at high irradiance. Meanwhile, the n-normal, Rs-normal, and Rsh-normal of the normal solar cells and the Rsh-cracks of the cracked solar cells in the cracked PV module are exponentially related to the irradiance. Finally, the experimental validation is effectively implemented to prove the great effectiveness and suitability of the proposed method. The average voltage error of each reconstructed I-V curve based on the extracted parameters and the average errors in Pm, Vm, Im, and Voc of the cracked PV module for 532 I-V curves are 1.15 V, 0.67%, 0.85%, 0.49%, and 0.089%, respectively. � 2011-2012 IEEE.
author2 57161726400
author_facet 57161726400
Feng L.
Zhang J.
Kiong T.S.
Ding K.
Amin N.
Hamelmann F.U.
format Article
author Feng L.
Zhang J.
Kiong T.S.
Ding K.
Amin N.
Hamelmann F.U.
author_sort Feng L.
title Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves
title_short Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves
title_full Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves
title_fullStr Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves
title_full_unstemmed Estimating Crack Effects on Electrical Characteristics of PV Modules Based on Monitoring Data and I-V Curves
title_sort estimating crack effects on electrical characteristics of pv modules based on monitoring data and i-v curves
publisher IEEE Electron Devices Society
publishDate 2024
_version_ 1814060070752747520
score 13.222552