Creator:

Hani, Umme Hani ; Ali, Mohammad Ali ; Nasrin, Reheha Nasrin

Contributor:

Jurczak, Paweł - red.

Title:

Multiple Slips on Boundary Layer Hydromagnetic Nanofluid Flow through a Cylinder with Multiple Regression Analysis

Group publication title:

IJAME, volume 31 (2026)

Subject and Keywords:

boundary layer ; slip conditions ; curvature ; chemical reaction ; shear stress

Abstract:

The complex boundary layer (BL) featuring nanofluid phenomena involving multiple slip conditions, heat-mass transfer, magnetohydrodynamics (MHD), stretching ratio, heat generation, curvature, viscous dissipation, thermal radiation, mixed convection, and chemical reaction through a nonlinear stretching cylindrical surface is investigated by this research. The collection of nonlinear partial differential equations is transformed into ordinary differential equations using a suitable transformation. ; These resultant equations are resolved using a numerical approach, specifically the shooting method. The novelty of this work lies in the integrated analysis of nanofluid boundary layer flow over a nonlinear cylindrical surface, simultaneously incorporating MHD effects, multiple slip conditions, heat and mass transfer, thermal radiation, viscous dissipation, mixed convection, chemical reactions, and heat generation, while providing both numerical solutions and regression-based predictive insights. ; The velocity gradient increases by almost 58%, 56%, and 49% due to escalating magnetic field, power-law index, and velocity slip, respectively, whereas the Nusselt number increases by almost 39%, 78%, and 47% for escalating heat generation, velocity, and thermal slips, respectively. The significant contributing variables for the multiple regression equations of the skin friction, thermal, and material transport rates are calculated. The research findings may have implications for various engineering and industries such as MHD power generators, drug delivery systems, and boundary layer management in aerodynamics, which control and manage velocity-thermal-concentration fields.

Publisher:

Zielona Góra: Uniwersytet Zielonogórski

Date:

2026

Resource Type:

artykuł

Format:

application/pdf

DOI:

click here to follow the link

Pages:

1-30

Source:

IJAME, volume 31, number 2 (2026)

Language:

eng

License:

CC 4.0

License CC BY-NC-ND 4.0:

click here to follow the link

Rights:

Biblioteka Uniwersytetu Zielonogórskiego