February 27, 2024Open Access

New approach method for solving nonlinear differential equations of blood flow with nanoparticle in presence of magnetic field

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MHMorteza HamzehNew Jersey Institute of Technology AKAmirreza KachabiEdwards Lifesciences (United States)MSMilad Heydari SipeyK.N.Toosi University of Technology

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Implication

Theoretical model demonstrates altered velocity and heat transfer in magnetic blood nanofluid flow, indicating enhanced concentration via thermophoresis.

Key Points

Velocity profiles increase with higher thermophoresis parameter and pressure gradient values, while elevated Brownian motion parameter suppresses fluid velocity.
Akbari-Ganji's method accurately resolves nonlinear flow differential equations, showing close agreement with fourth-order Runge-Kutta numerical simulations.
Application of Vogel's model yields the highest velocity magnitudes in porous media, highlighting key physical parameters governing targeted drug delivery systems.

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Hamzeh et al. (2024) studied this question.

synapsesocial.com/papers/68e77584b6db6435876eaaba https://doi.org/10.21203/rs.3.rs-3989142/v1

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Implication

Theoretical model demonstrates altered velocity and heat transfer in magnetic blood nanofluid flow, indicating enhanced concentration via thermophoresis.

New approach method for solving nonlinear differential equations of blood flow with nanoparticle in presence of magnetic field

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Member takes

Implication

Key Points

Cite This Study

New approach method for solving nonlinear differential equations of blood flow with nanoparticle in presence of magnetic field

Discussion

Member takes

Implication

Key Points

Cite This Study

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