Javascript must be enabled to continue!
Performance evaluation of photovoltaic thermal hybrid system using copper oxide nanofluids
View through CrossRef
The effect of cooling a flat plate collector integrated photovoltaic thermal (PVT) hybrid system with copper oxide nanofluid at different concentrations was compared with a non-cooled system. The Photovoltaic thermal hybrid system was designed with an efficient serpentine coil-based thermal absorber setup and was tested using various nanofluid concentrations. Copper oxide nanofluid empowered the system to attain significant electrical and thermal performance at higher concentrations. The electrical efficiency of the hybrid photovoltaic system increased by 17.61% at 0.05 M nanofluid concentration. The average value of the thermal efficiency increased by 71.17% at 0.05M nanofluid concentration. The thermal efficiency of the nanofluid-cooled module was found to be much better due to the improved heat absorption of nanoparticles. The solar panel surface temperature of the nanofluid-cooled system reduced from 68.4 ℃ (non-cooled system) to 44.74 ℃ (0.05 M) at noon. The highest efficiency values are achieved at a 0.05 M concentration of nanofluid.
Journal of Energy Systems
Title: Performance evaluation of photovoltaic thermal hybrid system using copper oxide nanofluids
Description:
The effect of cooling a flat plate collector integrated photovoltaic thermal (PVT) hybrid system with copper oxide nanofluid at different concentrations was compared with a non-cooled system.
The Photovoltaic thermal hybrid system was designed with an efficient serpentine coil-based thermal absorber setup and was tested using various nanofluid concentrations.
Copper oxide nanofluid empowered the system to attain significant electrical and thermal performance at higher concentrations.
The electrical efficiency of the hybrid photovoltaic system increased by 17.
61% at 0.
05 M nanofluid concentration.
The average value of the thermal efficiency increased by 71.
17% at 0.
05M nanofluid concentration.
The thermal efficiency of the nanofluid-cooled module was found to be much better due to the improved heat absorption of nanoparticles.
The solar panel surface temperature of the nanofluid-cooled system reduced from 68.
4 ℃ (non-cooled system) to 44.
74 ℃ (0.
05 M) at noon.
The highest efficiency values are achieved at a 0.
05 M concentration of nanofluid.
Related Results
Cu-Graphene water-based hybrid nanofluids: synthesis, stability, thermophysical characterization, and figure of merit analysis
Cu-Graphene water-based hybrid nanofluids: synthesis, stability, thermophysical characterization, and figure of merit analysis
AbstractHybrid nanofluids are emerging as an alternative to conventional heat transfer fluids and nanofluids for improving the thermal efficiency of heat exchanging devices synergi...
Numerical Investigation on Using MWCNT/Water Nanofluids in Photovoltaic Thermal System (PVT)
Numerical Investigation on Using MWCNT/Water Nanofluids in Photovoltaic Thermal System (PVT)
Photovoltaic thermal systems (PVT) are solar energy conversion systems that produce both electricity and heat simultaneously. PVT systems seeking to minimize temperature of solar c...
Thermal Effects in High Compactness CEA Stack
Thermal Effects in High Compactness CEA Stack
Thermal management is a pivotal aspect of stack durability and system operability. Consequently, understanding the thermal mapping within a stack based on its operating conditions ...
Experimental Study on Heat Transfer Improvement in a Circular Passage Using Metal Oxide and Ethylene Glycol Based Well Stable Nanofluids
Experimental Study on Heat Transfer Improvement in a Circular Passage Using Metal Oxide and Ethylene Glycol Based Well Stable Nanofluids
Zinc Oxide @ Glycol based nanofluids was prepared using the ultra-sonochemical technique and 2 step methods. The heat convection characteristics of as prepared nanofluids were obse...
Influences of Non-Linear Thermal Radiation and Cattaneo-Christov Heat and Mass Fluxes on Electrical Conductivity of Jeffrey Ternary Hybrid Nanofluid Flow
Influences of Non-Linear Thermal Radiation and Cattaneo-Christov Heat and Mass Fluxes on Electrical Conductivity of Jeffrey Ternary Hybrid Nanofluid Flow
This study investigates the three-dimensional flow of a Jeffrey ternary hybrid nanofluid over a stretching sheet, incorporating nonlinear thermal radiation, magnetic field, permeab...
The Characteristics of Hybrid Al2O3:SiO2 Nanofluids in Cooling Plate of PEMFC
The Characteristics of Hybrid Al2O3:SiO2 Nanofluids in Cooling Plate of PEMFC
A Proton Electrolyte Membrane fuel cells (PEMFC) is considered to be a viable alternatives to Internal Combustion Engines (ICEs) in automotive applications due to the key advantage...
A comprehensive experimental investigation of different nanofluids effective thermal conductivity
A comprehensive experimental investigation of different nanofluids effective thermal conductivity
Abstract
Nanofluids, renowned for their superior thermal conductivity relative to traditional fluids, have attracted considerable interest for their prospective appl...
Effect of Hybrid Nanofluids Concentration and Swirling Flow on Jet Impingement Cooling
Effect of Hybrid Nanofluids Concentration and Swirling Flow on Jet Impingement Cooling
Nanofluids have become increasingly salient in heat transfer applications due to their promising properties that can be tailored to meet specific needs. The use of nanofluids in je...

