Dusty Nanoliquid Flow through a Stretching Cylinder in a Porous Medium with the Influence of the Melting Effect

The melting effect, a type of heat transferal process, is fascinating mechanism thermo-physics. It related to phase change issues that occur in several industrial mechanisms. Glass treatment, polymer synthesis, and metal processing are among these. In view this, the current investigation explicates flow dusty nanofluid through stretching cylinder porous medium by considering effect transfer phenomenon. Using required similarity transformations, governing partial differential equations (PDEs) showing energy transference fluid motion both liquid dust phases were translated into ordinary (ODEs). numerical solutions for acquired ODEs developed using Runge–Kutta–Fehlberg method fourth–fifth order (RKF-45) shooting process. Graphical representations used interpret effects parameters, including porosity parameter, Eckert number, on respective velocity temperature profiles phases. skin friction coefficient Nusselt number also discussed tabulated. outcomes show enhancing parameter will diminish fluid- dust-phase velocities. Fluid velocity, improve with escalating values curvature whereas reduces thermal surface drag force declines an improvement constraints.