Non-Newtonian Flow describes fluid motion where viscosity depends on shear rate or deformation history. Unlike Newtonian fluids, these fluids exhibit complex behavior. Examples include polymers, slurries, and biological fluids. Non-Newtonian flow is important in industrial processing, biomedical engineering, and geophysics. Physics explains how internal structure affects flow resistance and stress response. Non-Newtonian flow behavior includes shear thinning, shear thickening, and viscoelasticity. Understanding non-Newtonian flow is essential for designing pipelines, reactors, and medical devices. Experimental and computational methods are used to study these flows. This field extends classical fluid dynamics to complex real-world materials.
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