Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination

This manuscript is about the electric output of the silicon (Si) photovoltaic (PV) cell versus the electromagnetic field of a radio wave and a monochromatic illumination in three-dimensional (3D) assumptions. The polarisation direction of the electromagnetic wave and power density are fixed. The ele...

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Autores principales:	Adama Ouedraogo, Boubacar Soro, Ramatou Konate, Fati Amadou Oumarou, Dieudonné Joseph Bathiebo
Formato:	article
Lenguaje:	EN
Publicado:	Hindawi Limited 2021
Materias:	Renewable energy sources TJ807-830
Acceso en línea:	https://doaj.org/article/5f94bf17c5174d24ad009c25bd3acb2c
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spelling	oai:doaj.org-article:5f94bf17c5174d24ad009c25bd3acb2c2021-11-08T02:35:49ZInvestigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination1687-529X10.1155/2021/5171351https://doaj.org/article/5f94bf17c5174d24ad009c25bd3acb2c2021-01-01T00:00:00Zhttp://dx.doi.org/10.1155/2021/5171351https://doaj.org/toc/1687-529XThis manuscript is about the electric output of the silicon (Si) photovoltaic (PV) cell versus the electromagnetic field of a radio wave and a monochromatic illumination in three-dimensional (3D) assumptions. The polarisation direction of the electromagnetic wave and power density are fixed. The electromagnetic wave is provided by electromagnetic emission sources such as the telecommunication, radio, or TV antennas. A PV system is installed in the vicinity of an electromagnetic emission source. The current produced by the PV cell is sensitive to electromagnetic field increase more than the electric voltage. The electromagnetic field causes the decomposition of the current into two components which are a transferred current and a leakage current. The transferred component provides the transmitted current to the external load while the leakage component gives the loss of the carrier charge into the junction. Consequently, this decomposition of the current shares the electric power in transferred electric power and leakage electric power. The transferred electric power is obtained only in the intermediate circuit, and the maximum power point (MPP) shifts to the short circuit situation as the junction dynamic velocity becomes the greatest. However, the leakage electric power corresponds to a loss of the minority carrier’s charge in the junction during the crossing of the junction. This loss causes a Joule heating effect of the junction. The heating of the junction causes the quality degradation of the PV cell mainly due to the electric component. The solar illumination wavelength is presenting the inversion phenomenon with the maximum of the electrical outputs of the silicon PV cell of around 0.70 μm which provides the greatest conversion efficiency. This value has been chosen for the modelling of the radio wave influence. Hence, the conversion efficiency increases when the PV system is far away from the electromagnetic emission source. PV system installation in the vicinity of an electromagnetic emission source is not advised.Adama OuedraogoBoubacar SoroRamatou KonateFati Amadou OumarouDieudonné Joseph BathieboHindawi LimitedarticleRenewable energy sourcesTJ807-830ENInternational Journal of Photoenergy, Vol 2021 (2021)
institution	DOAJ
collection	DOAJ
language	EN
topic	Renewable energy sources TJ807-830
spellingShingle	Renewable energy sources TJ807-830 Adama Ouedraogo Boubacar Soro Ramatou Konate Fati Amadou Oumarou Dieudonné Joseph Bathiebo Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination
description	This manuscript is about the electric output of the silicon (Si) photovoltaic (PV) cell versus the electromagnetic field of a radio wave and a monochromatic illumination in three-dimensional (3D) assumptions. The polarisation direction of the electromagnetic wave and power density are fixed. The electromagnetic wave is provided by electromagnetic emission sources such as the telecommunication, radio, or TV antennas. A PV system is installed in the vicinity of an electromagnetic emission source. The current produced by the PV cell is sensitive to electromagnetic field increase more than the electric voltage. The electromagnetic field causes the decomposition of the current into two components which are a transferred current and a leakage current. The transferred component provides the transmitted current to the external load while the leakage component gives the loss of the carrier charge into the junction. Consequently, this decomposition of the current shares the electric power in transferred electric power and leakage electric power. The transferred electric power is obtained only in the intermediate circuit, and the maximum power point (MPP) shifts to the short circuit situation as the junction dynamic velocity becomes the greatest. However, the leakage electric power corresponds to a loss of the minority carrier’s charge in the junction during the crossing of the junction. This loss causes a Joule heating effect of the junction. The heating of the junction causes the quality degradation of the PV cell mainly due to the electric component. The solar illumination wavelength is presenting the inversion phenomenon with the maximum of the electrical outputs of the silicon PV cell of around 0.70 μm which provides the greatest conversion efficiency. This value has been chosen for the modelling of the radio wave influence. Hence, the conversion efficiency increases when the PV system is far away from the electromagnetic emission source. PV system installation in the vicinity of an electromagnetic emission source is not advised.
format	article
author	Adama Ouedraogo Boubacar Soro Ramatou Konate Fati Amadou Oumarou Dieudonné Joseph Bathiebo
author_facet	Adama Ouedraogo Boubacar Soro Ramatou Konate Fati Amadou Oumarou Dieudonné Joseph Bathiebo
author_sort	Adama Ouedraogo
title	Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination
title_short	Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination
title_full	Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination
title_fullStr	Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination
title_full_unstemmed	Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination
title_sort	investigation of the polycrystalline silicon pv cell efficiency in 3d approximation versus electromagnetic field under monochromatic illumination
publisher	Hindawi Limited
publishDate	2021
url	https://doaj.org/article/5f94bf17c5174d24ad009c25bd3acb2c
work_keys_str_mv	AT adamaouedraogo investigationofthepolycrystallinesiliconpvcellefficiencyin3dapproximationversuselectromagneticfieldundermonochromaticillumination AT boubacarsoro investigationofthepolycrystallinesiliconpvcellefficiencyin3dapproximationversuselectromagneticfieldundermonochromaticillumination AT ramatoukonate investigationofthepolycrystallinesiliconpvcellefficiencyin3dapproximationversuselectromagneticfieldundermonochromaticillumination AT fatiamadououmarou investigationofthepolycrystallinesiliconpvcellefficiencyin3dapproximationversuselectromagneticfieldundermonochromaticillumination AT dieudonnejosephbathiebo investigationofthepolycrystallinesiliconpvcellefficiencyin3dapproximationversuselectromagneticfieldundermonochromaticillumination
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Investigation of the Polycrystalline Silicon PV Cell Efficiency in 3D Approximation versus Electromagnetic Field under Monochromatic Illumination

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