Fructose-mediated single-step synthesis of copper nanofluids with enhanced stability and thermal conductivity for advanced heat transfer applications

dc.contributor.authorBhat, D.K.
dc.contributor.authorKumar, S.P.
dc.contributor.authorShenoy, U.S.
dc.date.accessioned2026-02-03T13:20:29Z
dc.date.issued2025
dc.description.abstractA precisely controlled solution-phase approach was employed to synthesize copper nanofluid through the reduction of copper sulfate by fructose in the presence of cetyltrimethylammonium bromide, utilizing a mixture of water and ethylene glycol in 1:1 ratio as the base fluid. We delved into the nanofluid’s thermal conductivity and rheological properties, with a keen interest on particle size and reaction rates that exhibited significant sensitivity to variations in reaction parameters. The homogeneous dispersion of nanoparticles in the base fluid resulted in an augmentation of thermal conductivity to 2.31 Wm?1K?1 for particle loading fraction of 0.19%, with a never before achieved stability of 9 months. This method has proven to be not only straightforward and dependable but also efficient for the rapid synthesis of highly stable Newtonian nanofluids, underscoring the nanofluid’s potential for highly powerful cooling applications. © 2024 Taylor & Francis Group, LLC.
dc.identifier.citationChemical Engineering Communications, 2025, 212, 1, pp. 21-29
dc.identifier.issn986445
dc.identifier.urihttps://doi.org/10.1080/00986445.2024.2398251
dc.identifier.urihttps://idr.nitk.ac.in/handle/123456789/20541
dc.publisherTaylor and Francis Ltd.
dc.subjectNanofluidics
dc.subjectNewtonian flow
dc.subjectNewtonian liquids
dc.subjectThermal conductivity of liquids
dc.subjectThermal conductivity of solids
dc.subject% reductions
dc.subjectCopper nanofluid
dc.subjectCTAB
dc.subjectEnhanced stability
dc.subjectHeat transfer applications
dc.subjectNanofluids
dc.subjectNewtonian fluids
dc.subjectSingle-step synthesis
dc.subjectSolution phase
dc.subjectThermal
dc.subjectReaction rates
dc.titleFructose-mediated single-step synthesis of copper nanofluids with enhanced stability and thermal conductivity for advanced heat transfer applications

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