Influence of Magnetic Field on Electrical Model and Electrical Parameters of a Solar Cell under Intense Multispectral Illumination
1-Magnetic field, 2- Shunt Resistance, 3- Series Résistance, 4- SCR capacitance
Abstract
In this work we present a 3D modeling of the magnetic field influence on electrical model and electrical parameters (J ph , V ph , R s , R sh , C) of a polycrystalline silicon solar cell under intense multispectral illumination. For intense light, the electric field in the base of the solar cell has to be considered; taking into account this electric field and the applied magnetic field in our model lead to two major things: Firstly, new analytical expressions of the continuity equation, the photocurrent and the photovoltage are proposed; secondly an equivalent electrical model of the solar cell under constant magnetic field is proposed and the influence of the magnetic field is pointed out on electrical parameters such as shunt and series resistances and space charge capacitance.
Downloads
How to Cite
References
Bernard Equer (1993) L'électricité solaire photovoltaïque : présent et futur. 1(5), 5-6.
A Rocher (1987) Origine structurale et chimique de l'activité des joints de grain dans le silicium. 22, 591-595.
Jean-Pierre Charles, Ahmed Haddi, Alain Maouad, Hazri Bakhtiar, Abdellatif Zerga, Alain Hoffmann, Pierre Mialhe (2000) La Jonction du Solaire à la Microélectronique. 3(1), 1-16.
B Zouma, A S Maiga, M Dieng, F Zougmoré, G Sissoko (2009) 3D approach of spectral response for a bifacial silicon solar cell under a constant magnetic field. 15(1), 117-124.
U Freyer (1994) Nachrichten-Uebertragungstechnik.
F Pelanchon, C Sudre, Y Moreau (1992) Solar Cells Under Intense Light Concentration: Numerical and Analytical Approaches.
B Ba, M Kane, J Sarr (2003) Modelling recombination current in polysilicon solar cell grain boundaries. 80(2), 143-154.
M Zoungrana, I Ly, B Zouma, F Barro, G Sissoko (2007) Effect of magnetic field and base depth on excess minority carrier generation. 7(4), 73-81.
S Mohammad (1987) an alternative method for the performance analysis of silicon solar cells. 61(2), 767-772.
Y Betser, D Ritter, G Bahir, S Cohen, J Sperling (1994) Measurement of the minority carrier mobility in the base of heterojunction bipolar 11. J. Dugas, "3D modelling of a reverse cell made with improved multicrystalline silicon wafers. 32, 71-88.
B Thuillier (2004) Partie I. Présentation et fonctionnement des cellules solaires standard en silicium massif. 5-82.
J Asensi, C Voz, J Merten, J Andreu (1998) Shortcircuit resistance a-Si:HP-I-N solar cells: the link with the electronic properties of the active layer. 906-909.
G Sissoko, B Dieng, A Corréa, M Adj, D Azilinon (1998) Silicon solar cell space charge region width determination by a study in modelling. 1852-1855.
A Dieng, I Zerbo, M Wade, A Maiga, G Sissoko (2011) Three-dimensional study of a polycrystalline silicon solar cell: the influence of the applied magnetic field on the electrical parameters. 26(9), 095023.
Serafettin Erel (2002) The effect of electric and magnetic fields on the operation of a photovoltaic cell. 71(2), 273-280.
K Kotsovos, K Misiakos (2006) Base limited carrier transport and performance of double junction rear point contact silicon solar cells. 77(2), 209-227.
G Sissoko, A Corréa, E Nanéma, M Diarra, A Ndiaye, M Adj (1998) Recombination parameters measurement in silicon double sided surface field solar cell. 1856-1859.
C Garrido, D Stolik, J Rodriguez, A Morales (1999) Influence of carrier recombination in the space charge region on minority carrier lifetime in the base region of solar cells. 57(3), 239-247.
G Sissoko, E Nanéma, A Corréa, P Biteye, M Adj, A Ndiaye (1998) Silicon solar cell recombination parameters determination using the illuminated I-V characteristic. 1847-1851.
S Correia, J Lossen, M Bähr (2006) Eliminating shunts from industrial silicon solar cells by spatially resolved analysis. 1297-1300.
N Philips (1966) Practical electronics.
G Sissoko, B Dieng, A Corréa, M Adj, M Adj, D Azilinon (1998) Silicon solar cell space charge width determination by study in modelling. 1852-1855.
Published
2012-09-22
Issue
Section
License
Copyright (c) 2012 Authors and Global Journals Private Limited
This work is licensed under a Creative Commons Attribution 4.0 International License.