The problem of modelling and analysis of fluid flow in the presence of viscous dissipation over a wedge in motion is analytically and numerically addressed. As a result of the much-valued significance of this study in the aspects of technological and industrial revolution regarding aerospace, oil recovery systems, defence machineries, extrusion, moulding and polymerisation of sheets, building of war arsenal, glass whirling. However, the frontiers of several physical problems are modelled by both partial and ordinary differential equations (PDEs and ODEs). Therefore, the mathematical modelling of our present problem is not an exemption. Hence, the PDEs which models our problem under consideration becomes changed into coupled ODEs in nonlinear arrangement through the deployment of adequate and standard conversion procedure by using dimensionless variables. In line with the approach of the solution methodology, the boundary conditions governing the flow models are also transmuted. Afterwards, the well-established regular perturbation skill aided in the resolution of the problem. The solutions realised are simulated through the adoption of a software package in the Mathematica V.10 scheme for the numerical solutions. Hence, our results are embodied in form of graphs with legends. It is worthy to note that the effect of increasing rate of flow remains a function of rising values of the porosity and Grashof thermal parameters whereas the opposite behaviour of the flow field is a consequence of improving values of suction parameter. Also, the enhancement of the suction parameter and Eckert number values breeds intensification in the temperature. The Nusselt number intensifies with the rising values of the Prandtl parameter but regresses on the account of radiation factor development.