The hydrothermal properties of regular, hybrid, and tri-hybrid nanofluid flow above the twisted, porous structure are the study's emphasis. In order to simulate the flow, copper, silver nanowires, single-walled carbon nanotube nanoparticles, and the host fluid ionic liquid are taken into consideration. It has also been proposed that the surface is coiled inside the radius R circular portion. The system incorporates the existence of heat radiation and the magnetic field. The obtained equations were converted using similarity renovation by their non-dimensional model and then resolved using the RKF technique. The influence of relevant variables on the flow profile was examined using tables and graphs. The outcome indicates that while velocity is observed to be accelerated, temperature is decreased for curvature factor. Thermal radiation increases heat transfer, while tri-hybrid nanosuspension increases the rate of increment. The results of this work have significant implications for several commercial and engineering uses, including as electronics cooling, energy systems, and microfluidics. The right ternary hybrid nanofluid composition can lead to the development of more efficient and sustainable technologies.
Swathi et al. (Wed,) studied this question.