Investigating slip velocity effects on thermal and mass transport in magnetized nanoparticle squeeze flow via numerical scheme DOI
Danish Ali, Hakeem Ullah, Mehreen Fiza

et al.

Proceedings of the Institution of Mechanical Engineers Part N Journal of Nanomaterials Nanoengineering and Nanosystems, Journal Year: 2025, Volume and Issue: unknown

Published: April 24, 2025

Efficient control over heat and mass transport in confined fluid systems is essential for applications biomedical devices, lubrication systems, industrial cooling technologies. However, conventional studies often overlook the combined impact of velocity slip, magnetic effects, nanoparticle concentration on squeeze flow, leading to gaps understanding mechanisms under dynamic compression. This research addresses this gap by investigating influence volume fraction, field intensity, Schmidt number, number Cu-water based Magnetohydrodynamic (MHD) unsteady squeezing flow using a numerical approach. The governing nonlinear differential equations are solved bvp4c solver MATLAB. Results indicate that skin friction coefficient decreases with increasing values reaching −3.3907 S = 1.0, aligning closely already published results. Similarly, Nusselt as increases, computed value 1.1195 at 1.0. application stronger reduces profile, while higher numbers suppresses diffusion. slip parameter has negligible an increase slightly elevates concentration. study provides quantitative insights into effects velocity, MHD, offering valuable implications microfluidic transport, high-performance

Language: Английский

Investigating slip velocity effects on thermal and mass transport in magnetized nanoparticle squeeze flow via numerical scheme DOI
Danish Ali, Hakeem Ullah, Mehreen Fiza

et al.

Proceedings of the Institution of Mechanical Engineers Part N Journal of Nanomaterials Nanoengineering and Nanosystems, Journal Year: 2025, Volume and Issue: unknown

Published: April 24, 2025

Efficient control over heat and mass transport in confined fluid systems is essential for applications biomedical devices, lubrication systems, industrial cooling technologies. However, conventional studies often overlook the combined impact of velocity slip, magnetic effects, nanoparticle concentration on squeeze flow, leading to gaps understanding mechanisms under dynamic compression. This research addresses this gap by investigating influence volume fraction, field intensity, Schmidt number, number Cu-water based Magnetohydrodynamic (MHD) unsteady squeezing flow using a numerical approach. The governing nonlinear differential equations are solved bvp4c solver MATLAB. Results indicate that skin friction coefficient decreases with increasing values reaching −3.3907 S = 1.0, aligning closely already published results. Similarly, Nusselt as increases, computed value 1.1195 at 1.0. application stronger reduces profile, while higher numbers suppresses diffusion. slip parameter has negligible an increase slightly elevates concentration. study provides quantitative insights into effects velocity, MHD, offering valuable implications microfluidic transport, high-performance

Language: Английский

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