Thermal scrutinization of stagnation point flow of viscous dissipative ternary hybrid nanomaterial with surface tension gradient effects

The proposed model has potential uses in advanced thermal and mass transmission systems that need nanoparticle deposition and improved heat transfer. Its applications include industrial cooling and heating systems, polymer and material processing, chemical reactors, solar thermal devices, electronic cooling, and energy storage systems. The combination of thermophoretic particle deposition, activation energy, surface-tension gradients, viscous dissipation, and heat generation creates a realistic framework for assessing and managing heat and mass transport in high-temperature engineering processes. This work uses the expanded Yamada-Ota model to examine thermophoresis particle deposition in Stagnation point flow of trihybrid nanofluid with non-linear heat source and activation energy in relation to Magneto-Marangoni convective heat transmission. Applying the considerable similarity transformation results in the creation of the nonlinear dimensionless system as ordinary differential equations (ODEs). As the Marangoni convection parameter values increase, solutal and thermal profiles decline. The concentration profile becomes more prominent as the activation energy parameter values increase. Clinical trial This study is not a clinical trial.