Magnetic Fields Drive Massive Skin Friction Increase in Porous Micropolar Flows
Simulations reveal that external magnetic fields and porous resistance sharply increase skin friction while suppressing heat transfer in micropolar fluid ...
Simulations reveal that external magnetic fields and porous resistance sharply increase skin friction while suppressing heat transfer in micropolar fluid ...
Researchers numerically evaluated a rotating Casson hybrid nanofluid system to demonstrate how magnetic fields, thermal radiation, and autocatalysis reactions regulate ...
A computational investigation details how coupled magnetic and radiative forces control velocity, heat transfer, and nanoparticle concentration in non-Newtonian boundary ...
Researchers modeled the momentum and thermal transport of a five-nanoparticle fluid along a vertically stretched surface using an artificial neural ...
Computational simulations reveal that combining cylindrical gold with spherical nanoparticles increases mean velocity and mean temperature in a magnetized stenosed ...
A numerical simulation reveals how surface tension gradients and activation energy govern heat and mass transfer in trihybrid nanofluids.
A numerical investigation reveals that nanoparticle geometry, volume fraction, and fluid relaxation significantly improve thermal performance in magnetite and cobalt ...
Researchers developed a Morlet wavelet neural network surrogate model that replicates complex dissipative nanofluid flow simulations with high accuracy.
A new study in Discover Nano uses the OHAM method to analyze the flow and heat transfer of a GO-Cu-TiO2 ...
A new theoretical model shows that thermal radiation raises nanofluid temperature while activation energy boosts nanoparticle concentration in triple-stratified porous ...
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© 2026 Scienmag - Science Magazine