Fig 1.
Typical wire coating process.
Fig 2.
Wire coating process in a porous medium in a pressure type coating die.
Table 1.
Nomenclature of the model.
Fig 3.
The - curve of velocity and temperature profiles for 20th-order approximation.
Fig 4.
Comparison of HAM and ND-Sole methods.
Table 2.
The homotopy-pade approximation of w(1) and θ(1) for Reynlods model when χ = 6, R = 2, Br = 10, M = 0.1, β = 0.2.
Table 3.
The homotopy-pade approximation of w(1) and θ(1) for Vogel’s model when Ω = 6, R = 2, Br = 13, M = 0.1, β = 0.2.
Table 4.
Numerical comparison for velocity profile given in Eq (39) using HAM, ND-Sole methods and ADM Ω = 5, R = 2, Br = 10, M = 0.1, β = 0.2.
Fig 5.
Velocity and temperature distribution showing the effect of viscoelastic parameter β when χ = 6, R = 2, Br = 10, M = 0.1.
Fig 6.
Velocity and temperature distribution showing the effect of magnetic parameter M when χ = 6, R = 2, Br = 10, β = 0.2.
Fig 7.
Velocity and temperature distribution showing the effect of thermal radiation parameter R when χ = 6, M = 0.1, Br = 10, β = 0.2.
Fig 8.
Velocity and temperature distribution showing the effect of Reynolds viscosity χ when R = 2, M = 0.1, Br = 10, β = 0.2.
Fig 9.
Velocity and temperature distribution showing the effect of Brinkman number Br when χ = 6, M = 0.1, Br = 10, β = 0.2.
Fig 10.
Velocity and temperature distribution showing the effect of viscoelastic parameter β when Ω = 6, R = 2, Br = 13, M = 0.1.
Fig 11.
Velocity and temperature distribution showing the effect of magnetic parameter M when Ω = 6, R = 2, Br = 13, β = 0.2.
Fig 12.
Velocity and temperature distribution showing the effect of thermal radiation parameter R when Ω = 6, M = 0.1, Br = 13, β = 0.2.
Fig 13.
Velocity and temperature distribution showing the effect of Reynolds viscosity Ω when R = 2, M = 0.1, Br = 13, β = 0.2.
Fig 14.
Velocity and temperature distribution showing the effect of Brinkman number Br when Ω = 6, M = 0.1, Br = 0.2, R = 2.