Staff Members - Benha University
Performance Enhancement of Photovoltaic Cells by Changing Configuration and using PCM (RT35HC) with Nanoparticles Al2O3
Solar Energy • 2019
Publication Information
Authors
H.E. Abdelrahman, M.H. Wahba, H.A. Refaey, M. Moawad, N.S. Berbish
Keywords
PCM; Nanoparticles; Thermal conductivity enhancer; Photovoltaic cells; Heat sink
Journal
Solar Energy
Publisher
Elsevier
Volume
177
Issue
Not Available
Pages
665-671
publication.type
International
Paper Link
Open Link
Supplementary Materials
Not Available
Abstract
The present experimental work aims to enhance the photovoltaic cells performance. The effect of changing
configurations and using PCM mixed with nanoparticles are experimentally investigated. PCM (RT35HC) is
mixed with various volume fractions of AL2O3 from 0.11% to 0.77%. Also, cylindrical fins are used as heat sink
and thermal conductivity enhancer (TCE) for a heat aluminum plate to simulate PV solar cell. The percentage of
the cylindrical fins root area ratio, AR, is varied from 1.29 to 2.57% and the corresponding percentage enclosed
area ratio, AE, is changed from 3.57 to 7.14%. The results show that the cylindrical fins with RT35HC achieves
enhancement in temperature reduction of 20–46.3% in the front surface temperature and increases to 52.3% by
adding the nanoparticles with range of heat flux from 279 W/m2 to 820 W/m2 at T∞=20 ± 1 °C.
configurations and using PCM mixed with nanoparticles are experimentally investigated. PCM (RT35HC) is
mixed with various volume fractions of AL2O3 from 0.11% to 0.77%. Also, cylindrical fins are used as heat sink
and thermal conductivity enhancer (TCE) for a heat aluminum plate to simulate PV solar cell. The percentage of
the cylindrical fins root area ratio, AR, is varied from 1.29 to 2.57% and the corresponding percentage enclosed
area ratio, AE, is changed from 3.57 to 7.14%. The results show that the cylindrical fins with RT35HC achieves
enhancement in temperature reduction of 20–46.3% in the front surface temperature and increases to 52.3% by
adding the nanoparticles with range of heat flux from 279 W/m2 to 820 W/m2 at T∞=20 ± 1 °C.