Dynamics of chemical reactive on magneto Hybrid Nanomaterial with heat radiation due to porous exponential plate: Laplace transform technique for the heat and mass

Abstract

Among the most promising substitutes for conventional methods of heat transmission via fluids with sources of alternative energy include hybrid nanofluids, which can attain very high thermal conductivity. The idea of the current study is to discuss the unsteady incompressible flow in porous media affects the magnetized electrically induced of hybrid nanofluid with heat and mass transfer across stretching sheet. The flow is considered along an accelerated exponential sheet. Thermal radiation, heat source and chemical reaction are considered for the computation of heat and mass. Moreover, hybrid nanofluid is the mixture of base fluid such as Carboxymethyl cellulose water (CMC-water) with multi wall carbon nanotube ($MWCNT$) and molybdenum disulfide ($Mo{S}_2$) nanoparticles are employed according to their physical characteristics. To deal with the consequent partial differential equations that govern the flow, the Laplace-Transform approach was used via MATHEMATICA software. The effects on the numerous flow characteristics upon the hybrid nanofluid's concentration, temperature field, velocity are calculated against each other in a graphical format in the discussion section. The drag friction, rate of heat and mass are being computed in Tabular form. Higher estimates of the magnetic field parameter can decrease the fluid's velocity, but an increase in the time for the hybrid nanofluid and nanofluid. When the thermal radiation, heat source intensifies the fluid's temperature enhances proportionally. Based on the current investigation, we have determined that hybrid nanofluids produce better outcomes than unitary nanofluids.