Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation

Solar energy is one of the most important and promising energy sectors in the world. Batteries that convert sunlight into electrical energy could become a replacement for traditional carbon-based energy sources. Vertical thin-film solar batteries are one of the new approaches to solar energy generat...

Full description

Saved in:
Bibliographic Details
Main Authors: A. K. Esman, G. L. Zykov, V. A. Potachits, V. K. Kuleshov
Format: Article
Language:Russian
Published: Belarusian National Technical University 2024-10-01
Series:Известия высших учебных заведений и энергетических объединенний СНГ: Энергетика
Subjects:
Online Access:https://energy.bntu.by/jour/article/view/2408
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1832543725029425152
author A. K. Esman
G. L. Zykov
V. A. Potachits
V. K. Kuleshov
author_facet A. K. Esman
G. L. Zykov
V. A. Potachits
V. K. Kuleshov
author_sort A. K. Esman
collection DOAJ
description Solar energy is one of the most important and promising energy sectors in the world. Batteries that convert sunlight into electrical energy could become a replacement for traditional carbon-based energy sources. Vertical thin-film solar batteries are one of the new approaches to solar energy generation. The vertical configuration of solar panels provides maximum absorption of sunlight throughout the day. This orientation allows the batteries to capture solar energy even at low angles of incidence of the sun’s rays, which prolongs their operating time and improves the efficiency of electricity production. In this work, the authors proposed a three-dimensional model of a vertically oriented solar battery, as well as they calculated and evaluated the temperature characteristics and the efficiency obtained under conditions of changing ambient temperature. Herewith the power densities of concentrated solar radiation with maximum values from 1 to 10 kW/m2 were varied. The distribution of the maximum values of the surface temperature of the solar battery has been studied. Also, the dependences of the maximum values of the solar battery temperature and the temperature gradient inside it, as well as the dependences of the minimum and maximum values of the heat flux from the solar battery surface on the time of day in the middle of January and July have been studied and plotted. As the calculations have shown, the maximum values of the temperature gradient inside the solar battery in January are ~47–50 % higher than in July. The potential difference, generated by the battery, reaches its maximum values from 11 a.m. to 4 p.m. both in January and July. The use of vertical thin-film solar batteries will improve the power generation efficiency and lower operating costs by reducing the influence of dust, rain and snow.
format Article
id doaj-art-95f8dac99ad34609aa9ea331c9ec68cd
institution Kabale University
issn 1029-7448
2414-0341
language Russian
publishDate 2024-10-01
publisher Belarusian National Technical University
record_format Article
series Известия высших учебных заведений и энергетических объединенний СНГ: Энергетика
spelling doaj-art-95f8dac99ad34609aa9ea331c9ec68cd2025-02-03T11:34:32ZrusBelarusian National Technical UniversityИзвестия высших учебных заведений и энергетических объединенний СНГ: Энергетика1029-74482414-03412024-10-0167538139210.21122/1029-7448-2024-67-5-381-3921904Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar RadiationA. K. Esman0G. L. Zykov1V. A. Potachits2V. K. Kuleshov3Belarusian National Technical UniversityBelarusian National Technical UniversityBelarusian National Technical UniversityBelarusian National Technical UniversitySolar energy is one of the most important and promising energy sectors in the world. Batteries that convert sunlight into electrical energy could become a replacement for traditional carbon-based energy sources. Vertical thin-film solar batteries are one of the new approaches to solar energy generation. The vertical configuration of solar panels provides maximum absorption of sunlight throughout the day. This orientation allows the batteries to capture solar energy even at low angles of incidence of the sun’s rays, which prolongs their operating time and improves the efficiency of electricity production. In this work, the authors proposed a three-dimensional model of a vertically oriented solar battery, as well as they calculated and evaluated the temperature characteristics and the efficiency obtained under conditions of changing ambient temperature. Herewith the power densities of concentrated solar radiation with maximum values from 1 to 10 kW/m2 were varied. The distribution of the maximum values of the surface temperature of the solar battery has been studied. Also, the dependences of the maximum values of the solar battery temperature and the temperature gradient inside it, as well as the dependences of the minimum and maximum values of the heat flux from the solar battery surface on the time of day in the middle of January and July have been studied and plotted. As the calculations have shown, the maximum values of the temperature gradient inside the solar battery in January are ~47–50 % higher than in July. The potential difference, generated by the battery, reaches its maximum values from 11 a.m. to 4 p.m. both in January and July. The use of vertical thin-film solar batteries will improve the power generation efficiency and lower operating costs by reducing the influence of dust, rain and snow.https://energy.bntu.by/jour/article/view/2408solar panelcuinse23d simulation modelcomsol multiphysicsheat transfertemperature stabilizationtemperature gradientheat fluxefficiency
spellingShingle A. K. Esman
G. L. Zykov
V. A. Potachits
V. K. Kuleshov
Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation
Известия высших учебных заведений и энергетических объединенний СНГ: Энергетика
solar panel
cuinse2
3d simulation model
comsol multiphysics
heat transfer
temperature stabilization
temperature gradient
heat flux
efficiency
title Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation
title_full Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation
title_fullStr Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation
title_full_unstemmed Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation
title_short Simulation of Vertical Thin-Film Solar Battery under Exposure of Concentrated Solar Radiation
title_sort simulation of vertical thin film solar battery under exposure of concentrated solar radiation
topic solar panel
cuinse2
3d simulation model
comsol multiphysics
heat transfer
temperature stabilization
temperature gradient
heat flux
efficiency
url https://energy.bntu.by/jour/article/view/2408
work_keys_str_mv AT akesman simulationofverticalthinfilmsolarbatteryunderexposureofconcentratedsolarradiation
AT glzykov simulationofverticalthinfilmsolarbatteryunderexposureofconcentratedsolarradiation
AT vapotachits simulationofverticalthinfilmsolarbatteryunderexposureofconcentratedsolarradiation
AT vkkuleshov simulationofverticalthinfilmsolarbatteryunderexposureofconcentratedsolarradiation