This study describes convective temperature and mass transport in a magnetohydrodynamic nanofluid moving via an absorbing channel stretched across an extensive region while being influenced by a securing region. The analytical framework incorporates a multitude of factors including heat generation, thermal radiation effects, viscous dissipation, and chemical reaction implications. The influences of porosity, warm production, thermal emission, attractive fields, sticky indulgence, and substance reactions on the flow dynamics are absolutely expounded across a spectrum of governing parameters. Furthermore, it is posited that regulation can be applied to the nanoparticle volume segment at the boundary interface. Two specific varieties of nanofluids, specifically Copper-Water (Cu-H2O) with Aluminium Oxide-Water (Al2O3-H2O), are engaged in the scrutiny. The sensible challenge is mathematically articulated as approaches of nonlinear differential equations, which are subsequently resolved arithmetically employing the fourth-order Runge-Kutta procedure in sequence with the shooting approach. A proportional assessment of our findings with formerly published occasions in the scholarly prose reveals a significant degree of concordance.