Preparing nanofluids (Al2o3) for enhancement performance of photovoltaic
Joint Authors
Sadun, Muhammad A.
Muhammad, Muhammad J.
Hasan, Ibtisam Ali
Source
Engineering and Technology Journal
Issue
Vol. 39, Issue 9 (30 Sep. 2021), pp.1445-1453, 9 p.
Publisher
Publication Date
2021-09-30
Country of Publication
Iraq
No. of Pages
9
Main Subjects
Topics
Abstract EN
Photovoltaic (PV) panels produce electrical energy comparable to the cumulative amount of PV radiation generated on surface of sun.
The solar modules influence on temperature of PV panel and for work with its standard specifications in Iraqi environment can be used nanofluid for cooling PV and improve performance.
The developed thermal model for proposed cooling method has shown on the way to be an efficient design tool that can help engineers to reduce the time and cost of experimental testing.
The improvement in temperature reduction using direct flow technique at rear sides of PV panel achieved electrical and thermal performance enhancement.
The enhancement of overall efficiency at 1 g of nanofluid is showed 15% but in 1.5g nanofluid is 18% .
As well as the enhancement of thermal efficiency at 1 g and1.5g of nanofluid are showed 19% and 27% respectively.
So in Electrical efficiency at 1 g of nanofluid is showed 11% and in 1.5g nanofluid is 14% .
The experimental results have shown that the utilization of nanofluid (Al2O3) as a result of its high thermal conductivity and tiny particle size.
The coefficient of heat transfer and Nusselt number increasing with the increase of concentration of nanofluid, It can be concluded that has great impact, especially in Iraq condition where the temperature is normally high and can improve their performance and efficiency by adding nanofluid for cooling panels produce electrical energy comparable to the cumulative amount of PV radiation generated on surface of sun.
The solar modules influence on temperature of PV panel and for work with its standard specifications in Iraqi environment can be used nanofluid for cooling PV and improve performance.
The developed thermal model for proposed cooling method has shown on the way to be an efficient design tool that can help engineers to reduce the time and cost of experimental testing.
The improvement in temperature reduction using direct flow technique at rear sides of PV panel achieved electrical and thermal performance enhancement.
The enhancement of overall efficiency at 1 g of nanofluid is showed 15% but in 1.5g nanofluid is 18% .
As well as the enhancement of thermal efficiency at 1 g and1.5g of nanofluid are showed 19% and 27% respectively.
So in Electrical efficiency at 1 g of nanofluid is showed 11% and in 1.5g nanofluid is 14% .
The experimental results have shown that the utilization of nanofluid (Al2O3) as a result of its high thermal conductivity and tiny particle size.
The coefficient of heat transfer and Nusselt number increasing with the increase of concentration of nanofluid, It can be concluded that has great impact, especially in Iraq condition where the temperature is normally high and can improve their performance and efficiency by adding nanofluid for cooling system.
American Psychological Association (APA)
Sadun, Muhammad A.& Hasan, Ibtisam Ali& Muhammad, Muhammad J.. 2021. Preparing nanofluids (Al2o3) for enhancement performance of photovoltaic. Engineering and Technology Journal،Vol. 39, no. 9, pp.1445-1453.
https://search.emarefa.net/detail/BIM-1281524
Modern Language Association (MLA)
Sadun, Muhammad A.…[et al.]. Preparing nanofluids (Al2o3) for enhancement performance of photovoltaic. Engineering and Technology Journal Vol. 39, no. 9 (2021), pp.1445-1453.
https://search.emarefa.net/detail/BIM-1281524
American Medical Association (AMA)
Sadun, Muhammad A.& Hasan, Ibtisam Ali& Muhammad, Muhammad J.. Preparing nanofluids (Al2o3) for enhancement performance of photovoltaic. Engineering and Technology Journal. 2021. Vol. 39, no. 9, pp.1445-1453.
https://search.emarefa.net/detail/BIM-1281524
Data Type
Journal Articles
Language
English
Notes
Includes bibliographical references : p. 1453
Record ID
BIM-1281524