Numerical treatment of hydromagnetic thermal boundary-layer flow of an infinite porous limiting surface

Statistics – Computation

Scientific paper

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Boundary Layer Flow, Computational Fluid Dynamics, Heat Transmission, Magnetohydrodynamic Flow, Porous Walls, Thermal Boundary Layer, Finite Difference Theory, Flow Velocity, Prandtl Number, Unsteady Flow

Scientific paper

The finite difference approximation technique using the explicit method is used for solving the unsteady flow of an electrically conducting viscous and incompressible fluid, subjected to a normal homogeneous magnetic field. The flow is confined on one side of a non-magnetic infinite limiting surface (wall) which is initially at rest and then is suddenly accelerated in its own plane with a velocity which is a general function of time. The wall is porous and the authors assume that the Prandtl number of the fluid corresponds to the case of water and that the magnetic Prandtl number is equal to one. Quantitative discussion of the results is presented for the case of uniformly accelerated motion of the wall.

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