Insights into chemical reactions occurring in generalized nanomaterials due to spinning surface with melting constraints

Abstract The role of generalized nanoparticles was observed to be significant while increasing the surface area interaction between the base materials and the solid surface. The conductivity of such materials with the occurrence of similar and nonsimilar reactants has been observed to be very effective. Particularly, the processing of many rheological materials in industries is considered one of the significant applications. However, this study explored the unique features of the melting heat approach while considering the spinning motion of nanocomposite shear-thinning materials. The rheological material model was tested in the presence of autocatalytic reactions during its transparent conversion to a liquid state. Furthermore, the flow, temperature distribution, and nanoparticle concentration of the materials were represented by the conservation of momentum, concentration, and energy concepts. The leading problem is then presented using dimensionless local similar equations. The same equations are then numerically approximated by adopting one of the improved building three-stage formulas. The results were presented in terms of physical velocity, concentration, pressure, temperature, resistive forces, mass, and heat flow rates. The material dynamics are significantly reduced by plugging the higher relaxation time, and a reverse conduct is determined in the case of thermal analysis of the same materials. The melting heating factor and Brownian motion variation enhanced the flow speed and material temperature. On the other hand, a remarkable reduction in the material concentration was observed while uplifting similar and non-similar reaction factors. The method’s accuracy is confirmed through a well-matched comparison with the literature.