NEWTON’s law of viscosity,\({\rm{\TAU \;\alpha }}\frac{{{\rm{du}}}}{{{\rm{dy}}}}\)\({\rm{\tau }} = {\rm{\mu }} \times \frac{{{\rm{du}}}}{{{\rm{dy}}}}{\rm{\;}}\)μ = Dynamic viscosity in Pa.secAccording to Power-law model\({\rm{\tau }} = {\rm{m}} \times {\left( {\frac{{{\rm{du}}}}{{{\rm{dy}}}}} \right)^{\rm{n}}}\)where,m = flow behaviour indexn = flow characteristic indexExplanation:Type of BehaviorDescriptionExamplesNewtonianViscosity is independent of stressWater, mercury, glycerine, air, ENGINEERING oilsDilatantViscosity increases with increased stressQuicksand, Cornstarch, CONCENTRATED SUGAR solutionPseudoplasticViscosity decreases with increased stressMilk, bloodRheopecticViscosity increases with stress over timeGypsumThixotropicViscosity decreases with stress over timepaints

"> NEWTON’s law of viscosity,\({\rm{\TAU \;\alpha }}\frac{{{\rm{du}}}}{{{\rm{dy}}}}\)\({\rm{\tau }} = {\rm{\mu }} \times \frac{{{\rm{du}}}}{{{\rm{dy}}}}{\rm{\;}}\)μ = Dynamic viscosity in Pa.secAccording to Power-law model\({\rm{\tau }} = {\rm{m}} \times {\left( {\frac{{{\rm{du}}}}{{{\rm{dy}}}}} \right)^{\rm{n}}}\)where,m = flow behaviour indexn = flow characteristic indexExplanation:Type of BehaviorDescriptionExamplesNewtonianViscosity is independent of stressWater, mercury, glycerine, air, ENGINEERING oilsDilatantViscosity increases with increased stressQuicksand, Cornstarch, CONCENTRATED SUGAR solutionPseudoplasticViscosity decreases with increased stressMilk, bloodRheopecticViscosity increases with stress over timeGypsumThixotropicViscosity decreases with stress over timepaints

">

Group I contains the types of fluids while Group II contains the shear stress - rate of shear relationship of different types of fluids, as shown in the figure.Group IGroup IIP. Newtonian fluid1. Curve 1Q. Pseudo Plastic fluid2. Curve 2R. Plastic fluid3. Curve 3S. Dialatant fluid4. Curve 4 5. Curve 5 The correct match between Group I and Group II is

Fluid Mechanics Properties Of Fluids in Fluid Mechanics . 6 months ago

  797   0   0   0   0 tuteeHUB earn credit +10 pts

5 Star Rating 1 Rating

Concept:According to NEWTON’s law of viscosity,\({\rm{\TAU \;\alpha }}\frac{{{\rm{du}}}}{{{\rm{dy}}}}\)\({\rm{\tau }} = {\rm{\mu }} \times \frac{{{\rm{du}}}}{{{\rm{dy}}}}{\rm{\;}}\)μ = Dynamic viscosity in Pa.secAccording to Power-law model\({\rm{\tau }} = {\rm{m}} \times {\left( {\frac{{{\rm{du}}}}{{{\rm{dy}}}}} \right)^{\rm{n}}}\)where,m = flow behaviour indexn = flow characteristic indexExplanation:Type of BehaviorDescriptionExamplesNewtonianViscosity is independent of stressWater, mercury, glycerine, air, ENGINEERING oilsDilatantViscosity increases with increased stressQuicksand, Cornstarch, CONCENTRATED SUGAR solutionPseudoplasticViscosity decreases with increased stressMilk, bloodRheopecticViscosity increases with stress over timeGypsumThixotropicViscosity decreases with stress over timepaints

Posted on 13 Nov 2024, this text provides information on Fluid Mechanics related to Properties Of Fluids in Fluid Mechanics. Please note that while accuracy is prioritized, the data presented might not be entirely correct or up-to-date. This information is offered for general knowledge and informational purposes only, and should not be considered as a substitute for professional advice.

Take Quiz To Earn Credits!

Turn Your Knowledge into Earnings.

tuteehub_quiz

Tuteehub forum answer Answers

Post Answer

No matter what stage you're at in your education or career, TuteeHub will help you reach the next level that you're aiming for. Simply,Choose a subject/topic and get started in self-paced practice sessions to improve your knowledge and scores.