Engineering, Energy, Transport AIC

Stadnik Mykola – Doctor of Technical Sciences, Professor of the Department of "Power Engineering,

Electrical Engineering and Electromechanics " of the Vinnytsia National Agrarian University (3, Solnychna

str., Vinnytsia, 21008, Ukraine, email: stadnik1948@gmail.com ).

Rohach Valentyn – undergraduate of the Department " Power Engineering, Electrical Engineering and

Electromechanics " of the Vinnytsia National Agrarian University (3, Solnychna str., Vinnytsia, 21008,

Ukraine, email: valentyn.rogach@gmail.com).

Protsenko Dmytro - PhD, Associate Professor of Department of “Electromechanical Automation Systems

in Industry and Transportation” of Vinnytsia National Technical University (Khmelnytske

shose, Vinnytsia, 21021, Ukraine, e-mail: procenko.dp@vntu.edu.ua).

The article analyzes the approaches to the development of a device for continuous monitoring of

electrical parameters of solar panel generation. In the course of the research it is proposed to expand the

capabilities of the device in comparison with the existing analogues for more accurate consideration of

the main factors that influence the level of electricity generation by solar panels. The proposed device was

used to investigate the modes of operation of solar panels type ABI CL P60260. The monitoring results

obtained can be used to predict the generation level at the site of installation. The developed approaches to

the construction of a hardware-software complex for monitoring the electrical parameters of solar panel

generation allow determining the generation characteristics directly at the installation site in given

geographical coordinates. In addition, fixing changes in generation depending on weather conditions for

a long time, will allow you to get correlation dependencies to predict the level of generation, it is important

in the formation of autonomous power supply systems.

[1] Bessel, V.V, Kucherov V.G, Mangaleeva R.D. (2016) Izucheniye solnechnykh fotoelektricheskikh

elementov [Study of solar photovoltaic cells] Moscow: Publishing center of the Russian State

University of Oil and Gas [in Russian].

[2] Rouholamini, Amin & Pourgharibshahi, Hamed & Fadaeinedjad, Roohollah & Moschopoulos, Gerry.

(2013). Optimal tilt angle determination of photovoltaic panels and comparing of their mathematical

model predictions to experimental data in Kerman. Canadian Conference on Electrical and Computer

Engineering. 1-4. 10.1109/CCECE.2013.6567674. Retrieved from:

https://www.researchgate.net/publication/261283189_Optimal_tilt_angle_determination_of_photovolt

aic_panels_and_comparing_of_their_mathematical_model_predictions_to_experimental_data_in_Ker

man

[3] Karafil, Akif & Özbay, Harun & Kesler, Metin & Parmaksiz, Hüseyin. (2015). Calculation of

Optimum Fixed Tilt Angle of PV Panels Depending on Solar Angles and Comparison of the Results

with Experimental Study Conducted in Summer in Bilecik, Turkey. 10.1109/ELECO.2015.7394517.

Retrieved from: http://www.emo.org.tr/ekler/bb3f65bfca95624_ek.pdf

[4] Bondarevsky, S. L., Danileiko, O. K. (2018) Kompleksnyy stend-imitator dlya doslidzhennya

ekspluatatsiynykh kharakterystyk sonyachnykh paneley [A comprehensive stand-simulator for the

improvement of the operating characteristics of the dormant panels], 4/2018, 69–77, Electrical and

energy systems. [in Ukrainian].

[5] Boyko, S. M., Omelchenko, O. V., Pirozhenko, A. V., Vishnevsky S.Y. (2015) Laboratornyy

kompleks dlya doslidzhennya diyuchykh i vyrobnychykh avtonomnoho elektrozabezpechennya

elektropryymachiv elektrychnoyi enerhiyi [Laboratory complex for accessory elements and annexes of

an autonomous electrical safety system for electrical energy], 6, 212–216, Visnyk of the Khmelnitsky

National University [in Ukrainian].

[6] Sani, Arman & Warman, Eddy & Pranata, Andre & Suherman, Suherman. (2018). Measuring the

commercial solar panel performance. IOP Conference Series Materials Science and Engineering. 420.

10.1088/1757-899X/420/1/012051. Retrieved from:

https://www.researchgate.net/publication/327988772_Measuring_the_commercial_solar_panel_perfor

mance.

[7] Kaldellis, John & Kapsali, Marina & Kavadias, Kosmas. (2014). Temperature and wind speed impact

on the efficiency of PV installations. Experience obtained from outdoor measurements in Greece.

Renewable Energy. 66. 612-624. 10.1016/j.renene.2013.12.041.

[8] Data collection in the cloud with advanced data analysis using MATLAB, Retrieved from:

https://thingspeak.com/.

[9] Technical parameters of the solar panel MAXPOWER CS6U-345P, Retrieved from:

https://www.canadiansolar.com/upload/ 9f6474e3a7c4881c /d421046f5307ed4c.pdf.

[10] Stadnik, M. I. (2018) Optymizatsiya vyroblenoho heneruyuchoho obladnannya avtonomnoho

enerhopostachannya tvarynnytsʹkoyi fermy pry postiynomu biohazu [Optimization of the composition

of the livestock farm's autonomous energy supply generating equipment using biogas], 2, 101, 81–88,

Tekhnika, enerhetyka, transport APK. [in Ukrainian].

[11] Technical parameters of the solar panel ABI CL P60260 Retrieved from: https://abisolar.

com/ru/download/ABi-Solar-CL-P60260-D-RU.pdf

[12] Matviychuk, V. A., Rubanenko, O. O., Sobchuk, N. V. (2018) Vykorystannya lokalʹnykh dzherel

elektroenerhiyi dlya optymizatsiyi struktury EES [Use of local sources of electricity for optimization of

the structure of the EEC], No 4 (263), 98 – 101, Visnyk Khmelʹnytsʹkoho natsionalʹnoho universytetu

[in Ukrainian].

[13] Matviychuk, V.A., Rubanenko, O.O., Yavdyk, V.V. (2017) Analiz rezhymiv roboty

mikroelektromerezh i metodiv keruvannya nymy [Analysis of operating modes of microelectric grids

and methods of controlling them], No 1 (96), 162 – 165, Tekhnika, enerhetyka, transport APK [in

Ukrainian].