Fig 1.
Geometry of the problem.
Table 1.
Thermophysical properties of the nanoparticles and base fluid (water).
Table 2.
Variation of skin friction coefficient () with different values of ϕ, λ, n and β.
Fig 2.
Effect of n, ϕ on f′(ξ).
Fig 3.
Effect of n, ϕ on g′(ξ).
Fig 4.
Effect of λ, ϕ on f′(ξ).
Fig 5.
Effect of λ, ϕ on g′(ξ).
Fig 6.
Effect of β, ϕ on f′(ξ).
Fig 7.
Effect of β, ϕ on g′(ξ).
Fig 8.
Effect of n, ϕ on θ(ξ).
Fig 9.
Effect of λ, ϕ on θ(ξ).
Fig 10.
Effect of β, ϕ on θ(ξ).
Fig 11.
Effect of δ, ϕ on θ(ξ).
Fig 12.
Effect of n, ϕ on Φ(ξ).
Fig 13.
Effect of λ, ϕ on Φ(ξ).
Fig 14.
Effect of β, ϕ on Φ(ξ).
Fig 15.
Effect of γ, ϕ on Φ(ξ).
Fig 16.
Effect of Sc, φ on Φ(ξ).
Fig 17.
Effect of λ, β, ϕ on (Rex)1/2Cfx.
Fig 18.
Effect of λ, β, ϕ on (Rey)1/2Cfy.
Fig 19.
Streamlines for different values of nanoparticles volume fraction ϕ at λ = n = β = 3.
Fig 20.
Isotherms for different values of nanoparticles volume fraction ϕ at λ = n = β = 3, δ = γ = 2.
Table 3.
Variation of skin friction coefficient () with different values of ϕ, λ, n and β.
Fig 21.
Effect of ϕ, β, λ on −θ′(0).
Fig 22.
Effect of ϕ, γ, Sc on −Φ′(0).
Table 4.
Comparison of f″(0) and g″(0) for value of n when other parameters are zero.