Scientific and Technical Journal


ISSN Print 2221-3937
ISSN Online 2221-3805
The most effective use of photovoltaic cells will be if the transmit power at the change in ambient conditions will be maximal. Mathematical modeling of solar banks allows us to determine the nature of these changes and to obtain such characteristics. Solar panel simulation in Matlab / Simulink environment was performed. The adequacy of the developed model is proved. This is done by comparing the results of modeling with the declared technical characteristics of the plant manufacturer. The deviation of the calculated electrical characteristics does not exceed 1%. The characteristics of the solar battery corre-spond to the available real data. The possibility of constructing the volt-ampere characteristics of solar cells is provided. An analysis of the influence of temperature changes, changes in the load and the various influ-ence of solar radiation on the model of the solar panel with a power of 270 kW is carried out. When the re-sistance is increased, the current decreases by no more than 10%, and the voltage increases with no more than 5%. The stability of the current dependence on the illumination when changing the illumination at dif-ferent temperatures is revealed. The temperature range studied was -20 ° C to 25 ° C. The accuracy of the model, taking into account the error of measuring the input data modeling does not exceed 10%.
DOI 10.15276/eltecs.26.102.2017.3
1. Legislation of Ukraine [Zakonodavstvo Ukraїni]. available at:
2. Seifi, M., Che Soh, A.Bt., Izzrib, Abd, Wahab N., Khair B. Hassan M. A (2013) Comparative Study of PV Models in Matlab/Simulink, International Scholarly and Scientific Research & Innova-tion, issue 7, vol. 2, рр. 97-102.
3. Salmi, T., Bouzguenda, M., Gastli, A., Masmoundi A. (2012) MATLAB/Simulink Based Modelling of Solar Photovoltaic Cell, International Journal of Renewable energy research, issue 2, рр. 213-218.
4. Treshh, А. М. (2013) Simulation of solar cells in the MATLAB/SIMULINK environment [Modelirovanie solnechnyh batarej v srede MATLAB/SIMULINK] in «Informacionnye tehnologii v obrazovanii, nauke i proizvodstve» [«Information technologies in education, science and production»] Mezhdunarodnaja nauchno-tehnicheskaja internet-konferencija, Minsk, available at:
5. Patil, Sahebrao N., R. C. Prasad (2014) De-sign and simulation of MPPT algorithm for solar energy system using Simulink model, International Journal of Research in Engineering and Applied Sci-ences, Vol. 02, Issue 01, Jan, рр.37-40.
6. Migunov, Ja. N. (2015) Modeling a solar cell in a Simulink graphical environment [Modelirovanie solnechnogo jelementa v graficheskoj srede Sim-ulink], - Molodezhnyj nauchno-tehnicheskij vestnik. available at:
7. Energy alternative [Jenergeticheskaja al'ternativa] available at:поли.pdf
8. Shevchuk, V.I. (2016) Prospects for the use of solar cells for combined photovoltaic modules [Perspektivi vikoristannja sonjachnih ele-mentіv dlja kombіnovanih fotoelektrichnih modulіv] / Renewa-ble energy, Kiev. № 4, pp. 47-55
9. Frolkova, N.O., Frolkov, O.A. (2010) Model-ing different types of PV modules, 13th International Conference on Elektromechanics, Elektrotechnology, Electromaterials and Compo-nents. ICEEE, P.152
10. Andreas, Fell, Jonas, Schön, Martin, C.Schuberta Stefan W.Glunz (2017) The concept of skins for silicon solar cell modeling , Solar Energy Materials and Solar Cells - Volume 173, December, Pages 128-133.
11. Dietmar, Knippab, Vladislav, Jovanova, Asman, Tamanga, Veit, Wagnera, Alberto, Salleob (2017) Towards 3D organic solar cells, Nano Ener-gy - Volume 31, January 2017, Pages 582-589
Last download:
25 Jan 2020

[ © KarelWintersky ] [ All articles ] [ All authors ]
[ © Odessa National Polytechnic University, 2014-2018. Any use of information from the site is possible only under the condition that the source link! ]