Melting heat transfer properties on the magnetohydrodynamic flow of CNT-water nanofluids over an expanding surface

The significance of velocity slip in relation to the melting condition is examined in the current analysis for the flow of nanofluid via a stretching cylinder. However, magnetisation's importance for including transverse magnetic field is vital. As a novel study the use of “ Single-Wall Carbon Nanotube ” (SWCNT) and “ Multi-Wall Carbon Nanotube ” (MWCNT) nanocomposites are immersed in base liquid water for the thermal enhancement properties. As a result, the current model is designed to study the interaction of radiating energy and has various uses in the aforementioned fields. However, the prosed model is solved numerically deploying the traditional “ Runge-Kutta-fourth-order ” technique accomplished with shooting. Graphics are used to illustrate the properties of different physical elements connected to the governing equations. The analysis pertaining to the parameters is pronounced briefly. The main outputs are: The thickness of the thermal bounding surface increases due to the combined effect of volume concentration and thermal radiation, whereas the thickness decreases as a result of the heat supplier enhancing the profile.