Learn · Advanced Concepts in Fluid Mechanics
Lecture 21 of 59WEEK 4
Lecture 21: Confined oscillatory flows
Prof. Suman Chakraborty and Prof. Aditya Bandopadhyay · IIT Kharagpur
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- Advanced Concepts in Fluid Mechanics, IIT Kharagpur (at NPTEL)
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- CC BY-NC-SA, as NPTEL states it. Non-commercial use only.
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All the lectures
- Lecture 01 : Eulerian and Lagrangian Description of Fluid Motion
- Lecture 02 : Lines of Flow Visualization and Acceleration of Flow
- Lecture 03 : Angular Deformation of Fluid Elements
- Lecture 04 : Linear and Volumetric Deformation; Perspectives from Mass Conservation
- Lecture 05: Continuity Education in Integral Form : Stream Function and Velocity Potential
- Lecture 06: Euler Equation for Inviscid Flow
- Lecture 07: Bernoulli's Equation
- Lecture 08: Examples of Bernoulli's Equation
- Lecture 09: Reynolds Transport Equation
- Lecture 10: Reynolds Transport Theorem : Mass and Linear Momentum Conservation
- Lecture 11 : Reynolds transport theorem: arbitrarily moving control volume
- Lecture 12 : Reynolds transport theorem: angular momentum conservation
- Lecture 13 : Introduction to traction vector and stress tensor
- Lecture 14 : Cauchy/Navier equation
- Lecture 15 : Navier Stokes equation
- Lecture 16 : Navier Stokes equation(continued)
- Lecture 17: Some exact solutions of the Navier Stokes
- Lecture 18: Interfacial boundary conditions and example of thin film flows
- Lecture 19: Exact solutions of the Navier Stokes equations in cylindrical polar coordinates
- Lecture 20: Exact solutions of the Navier Stokes equation for some unsteady flows
- Lecture 21: Confined oscillatory flows
- Lecture 22: Introduction to Turbulence
- Lecture 23: Statistical Treatment of Turbulence and Near - Wall Velocity Profiles
- Lecture 24: Introduction to Boundary Layer Theory
- Lecture 25: Similarity Solution of Boundary Layer Equation
- Lecture 26 : Momentum Integral Method
- Lecture 27 : Application of Momentum Integral Method and Boundary Layer Separation
- Lecture 28 : Potential Flow
- Lecture 29 : Potential Flow (Contd.)
- Lecture 30 : Potential Flow (Contd.)
- Lecture 31: Potential Flow (Contd.)
- Lecture 32: Potential Flow (Contd.)
- Lecture 33: Potential Flow (Contd.)
- Lecture 34: Stokes Flow past a Sphere
- Lecture 35: Stokes Flow past a Sphere (Contd.)
- Lecture 36: Stokes Flow past a Sphere (Contd.)
- Lecture 37: Lubrication Theory
- Lecture 38: Lubrication Theory (Contd.)
- Lecture 39: Lubrication Theory (Contd.)
- Lecture 40: Thin Film Dynamics
- Lecture 41: Thin Film Dynamics (Contd.)
- Lecture 42: Thin Film Dynamics (Contd.)
- Lecture 43: Thin Film Dynamics (Contd.)
- Lecture 44: Thin Film Dynamics (Contd.)
- Lecture 45: Thin Film Dynamics (Contd.)
- Lecture 46: Thin Film Dynamics (Contd.)
- Lecture 47: Thin Film Dynamics (Contd.)
- Lecture 48: Compressible Flow
- Lecture 49: Compressible Flow (Contd.)
- Lecture 50 : Compressible Flows (Stagnation Properties)
- Lecture 51 : Compressible Flows (Stagnation Properties, Variable Area)
- Lecture 52 : Compressible Flows (Variable Area)
- Lecture 53 : Compressible Flows (Variable Area)
- Lecture 54 : Compressible Flow (Normal Shock)
- Lecture 55: Compressible Flow (Normal Shock) (Contd.)
- Lecture 56: Compressible Flow (Converging Nozzle)
- Lecture 57: Compressible Flow (Converging Diverging Nozzle)
- Lecture 58: Compressible Flow (Converging Diverging Nozzle) (Contd.)
- Lecture 59: Compressible Flow with Friction