#6562. Potential evaluation of hybrid nanofluids for solar thermal energy harvesting: A review of recent advances
December 2026 | publication date |
Proposal available till | 05-06-2025 |
4 total number of authors per manuscript | 0 $ |
The title of the journal is available only for the authors who have already paid for |
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Journal’s subject area: |
Energy Engineering and Power Technology;
Renewable Energy, Sustainability and the Environment; |
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Abstract:
Solar energy is assumed to provide an everlasting solution to the modern energy crisis since it is the most abundant source of renewable energy and solar energy harvesting systems do not generate any harm to the environmental stability as well. Current research trends on solar energy are mainly focused on solar thermal energy harvesting systems because of their huge potential for domestic as well as industrial applications. The efficacy of a solar thermal energy harvesting system is dependent on its design aspects (i.e., geometry and material) and the fluid used for photothermal/photovoltaic-thermal conversion and subsequent thermal energy transportation. Considering the crucial role of the working fluid, ample research is underway on the development of new fluids having superior optical and thermophysical characteristics. One of the recently developed thermal fluids called hybrid nanofluids possesses high thermal potential which makes them a suitable candidate for application in solar energy systems. This review article contains a brief discussion on important characteristics of hybrid nanofluids and a summary of the major findings of recent research studies that have tested hybrid nanofluids in/for solar thermal energy harvesting systems. Considering the findings of reviewed articles, the most important aspects of hybrid nanofluids influencing the performance of hybrid nanofluid based solar thermal energy harvesting systems are; optical characteristics, thermal conductivity, viscosity, pressure drop, nanoparticle size, nanoparticle type, nanoparticle shape, nanoparticle concentration, base fluid, nanoparticle suspension uniformity, working temperature and flowrate, compatibility of individual nanoparticles, preparation method, period and power of magnetic stirring and ultrasonication, surfactant, nanoparticle agglomeration/clustering, and sedimentation.
Keywords:
Hybrid nanofluids; Solar collectors; Solar energy; Solar thermal utilization
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