Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy

It should be noted that theoretical and experimental studies in the field of semiconductors have shown good prospects for creating matrix and multilateral photoelectric converters (MPCs) with vertical p-n junctions. Such PV have undeniable advantages in the tasks of generating high output voltages a...

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Main Authors: Bozarov Oybek, Aliev Rayimjon, Kuchkarov Akmaljon, Goipov Elmurod, Kuchkarova Mahmudahon
Format: Article
Language:English
Published: EDP Sciences 2024-01-01
Series:BIO Web of Conferences
Online Access:https://www.bio-conferences.org/articles/bioconf/pdf/2024/03/bioconf_aquaculture2024_05023.pdf
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author Bozarov Oybek
Aliev Rayimjon
Kuchkarov Akmaljon
Goipov Elmurod
Kuchkarova Mahmudahon
author_facet Bozarov Oybek
Aliev Rayimjon
Kuchkarov Akmaljon
Goipov Elmurod
Kuchkarova Mahmudahon
author_sort Bozarov Oybek
collection DOAJ
description It should be noted that theoretical and experimental studies in the field of semiconductors have shown good prospects for creating matrix and multilateral photoelectric converters (MPCs) with vertical p-n junctions. Such PV have undeniable advantages in the tasks of generating high output voltages and converting concentrated solar radiation. In addition, the implementation of such PVs in a multi-sensitive design makes it possible to reduce the consumption of semiconductor silicon by up to three to four times.But, in conditions of a dry, hot, continental and dusty climate, for example, in the republics of Central Asia, their heating is observed when the FP operates. This problem can be solved by using it in conjunction with microhydroelectric power plants or additional cooling. The hybrid system developed by the authors includes a solar power plant, a counter-rotor hydraulic unit with a reactive and active impeller, a cooling system and an automatic control system. The characteristics of this system were studied on the basis of mathematical modeling in the “Comsol multiphysics 6.1” software environment.In the simulation, the solar panel was cooled with air and water using electricity from a hydroelectric unit. According to the calculation results, the heating of the solar panel without forced convection at an outside air temperature of 400-450C was 1080C. Water was supplied through an aluminum cover installed behind the solar panel and which had channels. The solar panel temperature was 49.2°C and the water temperature was 48.2°C.When cooled by ambient air, the temperature of the solar panel was 67.7°C. The cooling system efficiency was 74% when comparing the energy expended to cool a 2m2 solar panel and the power added when cooling the panel.
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spelling doaj.art-c707d25ccc8e4e7eaa835517102acded2024-01-17T14:59:24ZengEDP SciencesBIO Web of Conferences2117-44582024-01-01840502310.1051/bioconf/20248405023bioconf_aquaculture2024_05023Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energyBozarov Oybek0Aliev Rayimjon1Kuchkarov Akmaljon2Goipov Elmurod3Kuchkarova Mahmudahon4Tashkent State Technical UniversityAndijan State UniversityFergana Polytechnic InstituteAndijan State UniversityFergana State UniversityIt should be noted that theoretical and experimental studies in the field of semiconductors have shown good prospects for creating matrix and multilateral photoelectric converters (MPCs) with vertical p-n junctions. Such PV have undeniable advantages in the tasks of generating high output voltages and converting concentrated solar radiation. In addition, the implementation of such PVs in a multi-sensitive design makes it possible to reduce the consumption of semiconductor silicon by up to three to four times.But, in conditions of a dry, hot, continental and dusty climate, for example, in the republics of Central Asia, their heating is observed when the FP operates. This problem can be solved by using it in conjunction with microhydroelectric power plants or additional cooling. The hybrid system developed by the authors includes a solar power plant, a counter-rotor hydraulic unit with a reactive and active impeller, a cooling system and an automatic control system. The characteristics of this system were studied on the basis of mathematical modeling in the “Comsol multiphysics 6.1” software environment.In the simulation, the solar panel was cooled with air and water using electricity from a hydroelectric unit. According to the calculation results, the heating of the solar panel without forced convection at an outside air temperature of 400-450C was 1080C. Water was supplied through an aluminum cover installed behind the solar panel and which had channels. The solar panel temperature was 49.2°C and the water temperature was 48.2°C.When cooled by ambient air, the temperature of the solar panel was 67.7°C. The cooling system efficiency was 74% when comparing the energy expended to cool a 2m2 solar panel and the power added when cooling the panel.https://www.bio-conferences.org/articles/bioconf/pdf/2024/03/bioconf_aquaculture2024_05023.pdf
spellingShingle Bozarov Oybek
Aliev Rayimjon
Kuchkarov Akmaljon
Goipov Elmurod
Kuchkarova Mahmudahon
Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
BIO Web of Conferences
title Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
title_full Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
title_fullStr Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
title_full_unstemmed Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
title_short Results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
title_sort results of mathematical modelling of the cooling system for solar panels of a hybrid power plant based on solar and hydraulic energy
url https://www.bio-conferences.org/articles/bioconf/pdf/2024/03/bioconf_aquaculture2024_05023.pdf
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