Magnetic induced dissipation for radiative nanofluid flow on moving plate with multiple slip for advanced thermal management

Abstract

The growing demand for energy-efficient, high-performance cooling systems in modern engineering has intensified the need for advanced thermal management technologies. Nanofluids with enhanced thermal conductivity are promising fluids for applications such as microelectronic cooling, solar collectors, and biomedical therapies. The interaction of magnetization, thermal radiation, and Joule dissipation combined with Brownian and thermophoresis due to cross-diffusion enriches the flow phenomena. With the above-mentioned assumptions, the impact of multiple slips on the flow over a moving plate is shown to be important. The mathematical model designed for the proposed assumptions is nonlinear and in dimensional form. Suitable similarity rules are employed to transform the governing equations into dimensionless form. To handle the nonlinear transformed model the shooting-based Runge–Kutta fourth-order technique is used. The present results validate the earlier work in the particular case, which led to the convergence of the present methodology. Further, the analysis of several factors is presented graphically, showing that magnetic-induced dissipation significantly enhances the fluid temperature. Slip effects are shown to regulate the near-wall velocity and heat transfer, providing a potential control mechanism for optimizing cooling performance.