Impact of magnetic dipole contribution on radiative ferromagnetic Cross nanofluid flow with viscous dissipation aspects

Hussain, Iftikhar; Hobiny, Aatef; Irfan, M.; Tabrez, M.; Khan, Waqar Azeem

doi:10.1016/j.jmmm.2023.170706

Cited by 9 publications

(1 citation statement)

References 26 publications

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“…Ferromagnetic nanoparticles could provide a solution by enabling efficient nanoscale heat transfer, addressing potential limitations of traditional methods. Hussain et al [1] showed a study into the influence of the magnetised dipole contribution on the flow of radiative ferromagnetic nanofluids, considering the aspects related to viscous dissipation. Salawu [2] deliberated the impact of magnetization, varying viscosity, and thermal conductivity on the Von Karman swirling movement within ferromagnetic nanofluids composed of water and iron oxide, generated by a rotating disc.…”

Section: Introductionmentioning

confidence: 99%

Ferromagnetic and ohmic effects on nanofluid flow via permeability rotative disk: significant interparticle radial and nanoparticle radius

Shamshuddin,

Panda,

Pattnaik

et al. 2024

Phys. Scr.

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The significance of interparticle spacing and nanoparticle radius for the case of single-phase nanofluid flow has often been neglected. Tremendous applications of this phenomenon can be witnessed in different fields, especially in electron microscopes, heat exchange processes, and many others. This research highlights this vital aspect of Ohmic heating in nanofluid flow over a spinning disk. To ensure the novelty, a ferromagnetic nanoparticle (Manganese ferrite) has been incorporated to examine interparticle spacing and particle radius to explore the features of heat transfer. The ferromagnetic nanofluids are vital in carriers for drug delivery systems, in cancer treatment, design of systems for hyperthermia therapy, in microfluidic devices used for chemical synthesis, etc. The quantiles of dimensional equations are converted into dimensionless ones by adopting similarity transformations and to solve highly coupled nonlinear equations numerically, built-in bvp5c MATLAB tool is utilized. The effect of a few revealed factors, the velocity and temperature distributions, are examined via visualization. Furthermore, streamlined plots are also visualized. The outcomes produced showed excellent agreement with those made in the literature in the same direction by assuming some exceptional cases on different gradients. Further, the outstanding results are reported as; the permeability of the surface produces the suction velocity and the enhanced suction velocity attenuates the fluid velocity in either of the case of pure and nanofluid. The increase in thermal radiation boost up the heat transfer rate whereas the augmentation in the Eckert number retards it significantly.

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Section: Introductionmentioning

confidence: 99%

Ferromagnetic and ohmic effects on nanofluid flow via permeability rotative disk: significant interparticle radial and nanoparticle radius

Shamshuddin,

Panda,

Pattnaik

et al. 2024

Phys. Scr.

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Statistical analysis on the rate of heat transfer of radiative water‐based hybrid nanofluid flow over an elongating surface due to velocity slip and melting heat condition

Mathur,

Mishra,

Pattnaik

et al. 2024

Z Angew Math Mech

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The performances of the heat transfer due to dissipative heat likely magnetic dissipation is a challenging field of research because of it's diversifies applications in industries and engineering. Particularly, nowadays, in biomedical field of research the implementation of dissipation along with thermal radiation is vital. Based upon the current scenario, the present investigation leading to the role of magnetic dissipation vis‐à‐vis thermal radiation on the water‐based hybrid nanofluid past an electro‐magnetized elongating surface associated with melting boundary conditions. The adaptation of the transformed rule particularly, similarity rules are useful to convert the proposed set of problems in to ordinary. Further, shooting‐based numerical technique is proposed to handle the governing equations. The interesting and novel approach in this topic is the use of robust statistical technique, that is, response surface methodology for the optimizing Nusselt number for the use of various factors. Moreover, the validation is obtained by conducting a hypothetical testing using analysis of variance (ANOVA) which conforms a best output model for appropriate response. Further, the major outcomes of the study are depicted as; the unsteadiness parameter decelerates the velocity profile of the hybrid nanofluid for the interaction. However, the increasing particle concentration favours in enhancing the heat transport phenomenon.

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Effectiveness of Maxwell velocity and smoluchowski thermal slip constraints in presence of non-uniform heat source

Khan,

Hayat,

Alsaedi

2024

Case Studies in Thermal Engineering

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Impact of magnetic dipole contribution on radiative ferromagnetic Cross nanofluid flow with viscous dissipation aspects

Cited by 9 publications

References 26 publications

Ferromagnetic and ohmic effects on nanofluid flow via permeability rotative disk: significant interparticle radial and nanoparticle radius

Ferromagnetic and ohmic effects on nanofluid flow via permeability rotative disk: significant interparticle radial and nanoparticle radius

Statistical analysis on the rate of heat transfer of radiative water‐based hybrid nanofluid flow over an elongating surface due to velocity slip and melting heat condition

Effectiveness of Maxwell velocity and smoluchowski thermal slip constraints in presence of non-uniform heat source

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