Brownian motion

Physics

Nonlinear system

Reynolds number

Stream function

Darcy number

Heat transfer

Buoyancy

Mechanics

Porosity

Magnetic field

Porous medium

Nusselt number

Vortex

Thermophoresis

Grashof number

Composite material

Turbulence

Materials science

Vorticity

Nanofluid

Quantum mechanics

Magnetohydrodynamics

Classical mechanics

Scientific Reports

The significance of the study is to determine of transferred heat and mass impact on the magneto-hydrodynamic peristalsis of Jeffery nanofluid through porous media with inclined symmetric channels whose walls are induced by peristaltic motion within porous media. The aim of this investagtion is to study the influence of various types of parameters such as Brownian motion, thermophoresis, buoyancy forces, and magnetic fields are studies on concentration, temperature, and axial velocity. The numerical solution has been achieved according to the long-wavelength and low Reynolds number approximation utilizing the MATLAB bvp4c function. The resultant dimensions of nonlinear governing equations were approached numerically through the Runge-Kutta- Fehlberg integration scheme, a MATLAB program. The influence of different factors such as the ratio of relaxation to retardation times, nanoparticle Grashof number, and magnetic field was discussed on concentration, temperature, and velocity profiles. tables and graphs were used to demonstrate the numerically computed numerical results. Plotting graphs were utilized for evaluating the pertinent parameters impacts on the aforementioned quantities based on computational results. According to the findings, the effect of the parameters are significant.

Numerical solution for MHD peristaltic transport in an inclined nanofluid symmetric channel with porous medium