Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine

Wind energy is used to rotate a magnetic turbine in order to remove heat from the surface of a photovoltaic (PV) panel. A three-bladed turbine, which rotates with wind energy, has rotational motion underneath the studied PV panel in order to move Magnetic Nano-Particles (MNPs). In addition, effects...

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Main Authors: N. Heidari, M. Rahimi, N. Azimi
Format: Article
Language:English
Published: Iranian Association of Chemical Engineering (IAChE) 2019-10-01
Series:Iranian Journal of Chemical Engineering
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Online Access:https://www.ijche.com/article_133030_8e2fbdd3f12db15d9e27c549d9a3799a.pdf
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author N. Heidari
M. Rahimi
N. Azimi
author_facet N. Heidari
M. Rahimi
N. Azimi
author_sort N. Heidari
collection DOAJ
description Wind energy is used to rotate a magnetic turbine in order to remove heat from the surface of a photovoltaic (PV) panel. A three-bladed turbine, which rotates with wind energy, has rotational motion underneath the studied PV panel in order to move Magnetic Nano-Particles (MNPs). In addition, effects of the magnetic field strength (B=450-830 mT), rotational velocity of the magnetic turbine (ω), and the concentration of MNPs (ϕ) on the heat removal from the PV panel area were investigated. Results showed that heat removal from PV panel was intensified by motion of pinned MNPs in the ferrofluid via the exerted external force of magnetic field. Concurrent application of available magnetic field along with ferrofluid led to 7.6-24 % temperature reduction for a PV panel. Furthermore, the produced electrical energy of the PV panel was augmented between 2.55-3.13 W depending on ϕ, ω, and B. Moreover, the impact of ω on cooling performance was also investigated, and a significant enhancement to generated power was observed. Eventually, the maximum amount of the produced power (3.13 W), maximum power enhancement percentage (32.63 %), and thermal efficiency (24 %) were achieved for B=830 mT, ω=50 cycles/min, and ϕ=0.05 (w/v).
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publishDate 2019-10-01
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spelling doaj-art-7bec7cd6788045f7a03fa19ef788d4002025-08-20T03:13:38ZengIranian Association of Chemical Engineering (IAChE)Iranian Journal of Chemical Engineering1735-53972008-23552019-10-01164355210.22034/ijche.2019.133030133030Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind TurbineN. Heidari0M. Rahimi1N. Azimi2Department of Chemical Engineering, Kermanshah Branch, Islamic Azad University, Kermanshah, Iran.Razi UniversityDepartment of Chemical Engineering, Kermanshah Branch, Islamic Azad University, Kermanshah, Iran.Wind energy is used to rotate a magnetic turbine in order to remove heat from the surface of a photovoltaic (PV) panel. A three-bladed turbine, which rotates with wind energy, has rotational motion underneath the studied PV panel in order to move Magnetic Nano-Particles (MNPs). In addition, effects of the magnetic field strength (B=450-830 mT), rotational velocity of the magnetic turbine (ω), and the concentration of MNPs (ϕ) on the heat removal from the PV panel area were investigated. Results showed that heat removal from PV panel was intensified by motion of pinned MNPs in the ferrofluid via the exerted external force of magnetic field. Concurrent application of available magnetic field along with ferrofluid led to 7.6-24 % temperature reduction for a PV panel. Furthermore, the produced electrical energy of the PV panel was augmented between 2.55-3.13 W depending on ϕ, ω, and B. Moreover, the impact of ω on cooling performance was also investigated, and a significant enhancement to generated power was observed. Eventually, the maximum amount of the produced power (3.13 W), maximum power enhancement percentage (32.63 %), and thermal efficiency (24 %) were achieved for B=830 mT, ω=50 cycles/min, and ϕ=0.05 (w/v).https://www.ijche.com/article_133030_8e2fbdd3f12db15d9e27c549d9a3799a.pdfheat transferphotovoltaic panelcoolingferrofluidmagnetic field
spellingShingle N. Heidari
M. Rahimi
N. Azimi
Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine
Iranian Journal of Chemical Engineering
heat transfer
photovoltaic panel
cooling
ferrofluid
magnetic field
title Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine
title_full Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine
title_fullStr Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine
title_full_unstemmed Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine
title_short Cooling Enhancement of a Photovoltaic Panel Through Ferrofluid Stimulation Using a Magnetic-Wind Turbine
title_sort cooling enhancement of a photovoltaic panel through ferrofluid stimulation using a magnetic wind turbine
topic heat transfer
photovoltaic panel
cooling
ferrofluid
magnetic field
url https://www.ijche.com/article_133030_8e2fbdd3f12db15d9e27c549d9a3799a.pdf
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AT mrahimi coolingenhancementofaphotovoltaicpanelthroughferrofluidstimulationusingamagneticwindturbine
AT nazimi coolingenhancementofaphotovoltaicpanelthroughferrofluidstimulationusingamagneticwindturbine