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handle: 10400.21/10387
We present dimensionally reduced Reynolds type equations for steady lubricating flows of incompressible non-Newtonian fluids with shear-dependent viscosity by employing a rigorous perturbation analysis on the governing equations of motion. Our analysis shows that, depending on the strength of the power-law character of the fluid, the novel equation can either present itself as a higher-order correction to the classical Reynolds equation or as a completely new nonlinear Reynolds type equation. Both equations are applied to two classic problems: the flow between a rolling rigid cylinder and a rigid plane and the flow in an eccentric journal bearing.
lubrication approximation, QC120-168.85, power-law fluid, shear-dependent viscosity, Descriptive and experimental mechanics, Lubrication approximation, Power-law fluid, Shear-dependent viscosity, Thermodynamics, Reynolds equation, QC310.15-319
lubrication approximation, QC120-168.85, power-law fluid, shear-dependent viscosity, Descriptive and experimental mechanics, Lubrication approximation, Power-law fluid, Shear-dependent viscosity, Thermodynamics, Reynolds equation, QC310.15-319
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