Advanced heat transfer analysis of 3D magnetohydrodynamic nanofluid flow over an extending sheet with thermal radiation and internal heat generation/absorption

The hybrid nanofluid outperforms the nanofluid in terms of thermal transformation effectiveness. The manufacturing industry utilizes hybrid nanofluids primarily for automotive thermal conversion, refrigeration machines, and solar energy production. Prior to applying the first and second theory of thermodynamics equation to nano-scale fluids, the two most important transportation parameters that need to be assessed are the transmission of heat and nanofluid velocity. The aim of this study is to examine the properties of heat transfer in magneto-hydro-dynamic hybrid nanofluid flows on a linearly expandable sheet in the presence of magnetism. A collection of non-linear non-dimensional partial differential equations is converted to an arrangement of ordinary differential equations by using resemblance coefficients. The bvp4c algorithm in the MATLAB computational programmer is used to find the non-analytical techniques of these converted equations. The effects of different physical characteristics are examined, together with skin friction parameters and thermal transfer characteristics. Tables and graphs are used to illustrate how important variables, such as the surface stretched ratio, rotational and electromagnetic consequences, thermal, and flow, behave. This work makes use of a hybrid nanofluid computational framework to increase heat conductivity. The dual solutions can be obtained in this work. The authors state that this study is novel and that nothing previously research published has been done that is comparable to it.