Magneto-micropolar fluids have emerged in various advanced technological and biomedical applications, including electronic cooling devices, drug delivery processes, and thermal control in magneto-thermal environments. In the proposed investigation, the synergetic incorporation of nanoparticles such as \({\text{Al}}_{{2}} {\text{O}}_{{3}}\) and \({\text{TiO}}_{{2}}\) into water-based fluid provides superior thermal performance because of enhanced conductivity. The heat and fluid flow characteristic of a magneto-micropolar hybrid nanofluid, combined with the effect of dissipation properties with improved the physical system. The governing mathematical models are transformed into standard form utilizing similarity rules, and further, the Differential transform method (DTM) is implemented, which ensures the analytical convergence and computational efficiency. The analysis of the induced electric field coupled with magnetic intensity modifies the rotational and translational behaviour. The dissipative heat impact is found to enrich the transport phenomenon. The irreversibility conducted by various properties gives rise to the impact of entropy generation. This feature arises owing to heat transfer irreversibility, irreversibility caused by dissipation, etc. The results of various factors implemented in the flow patterns are deployed graphically, followed by validation of the results in particular cases. Further, the variations are reported, and physical descriptions are provided briefly.
