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Influence of an inclined MHD on bioconvective Casson-Williamson nanoliquid transportation over an exponentially stretching surface
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DOI：10.1080/02286203.2026.2681101.png)
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Abstract
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This work investigates the behaviour of Casson-Williamson nanoliquid on an exponentially extending surface, considering many source factors such as buoyancy force, thermophoresis, magnetic fields, Brownian diffusion, and bioconvection. This work examines the impacts of an inclined magnetic field, specifically one with an inclination angle between 15 and 60 degrees, on oxytactic bioconvective nanoliquid transport. The situation is characterised by coupled, nonlinear partial differential equations transmuting into dimensionless representations through nonsimilar transformations. A method of quasilinearisation and an implicit finite difference approach are exploited to conduct the numerical simulation. The heat transport rate is enhanced by about 6% and 13% when the angle of inclination varies from 15° to 30° for magnetic parameter values M=1 and M=3, respectively. Higher values of the Casson and Williamson parameters result in an upsurge of surface friction and a diminution of fluid velocity within the boundary layer. Our results are pretty consistent with those of different investigations.
Keywords:
Oxytactic bioconvection
inclined magnetic field
Casson-Williamson nanoliquid
implicit finite difference scheme
quasilinearisation technique
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