Learn · Advanced Fluid Mechanics - IITKGP
Lecture 31 of 59Week 7
Lecture 32 : Prandtl's mixing length
Prof. Suman Chakraborty · IIT Kharagpur
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All the lectures
- Lecture 1 : Lagrangian and Eulerian Approach, Types of fluid flow
- Lecture 2 : Streamlines, Streakline and Pathline
- Lecture 3 : Acceleration of fluid flow
- Lecture 4 : Deformation and Conservation of mass of fluid element
- Lecture 5 : Angular deformation of a fluid element, vorticity & streamfunction and velocity potential
- Lecture 6 : Euler’s equation
- Lecture 7 : Bernoulli’s equation (Part I)
- Lecture 8 : Bernoulli’s equation (Part II)
- Lecture 9 : Reynolds Transport Theorem (RTT)
- Lecture 11 : Application of RTT: Conservation of linear momentum
- Lecture 12 : Application of RTT in accelerating reference frames
- Lecture 13 : Navier's equation of motion
- Lecture 14 : Derivation of Navier-Stokes equation
- Lecture 15 : Derivation of Navier-Stokes equation (contd.)
- Lecture 16 : Derivation of Navier-Stokes equation (contd.)
- Lecture 17 : Fully developed flow between two parallel plates
- Lecture 18 : Fully developed flow between two parallel plates (contd.)
- Lecture 19 : Couette flow
- Lecture 20 : Flow with interfaces
- Lecture 21 : Thin film flow on an inclined plane and Hagen-Poiseuille flow
- Lecture 22 : Hagen-Poiseuille flow (contd.)
- Lecture 23 : Flow between two rotating cylinders
- Lecture 24 : Stokes 1st problem
- Lecture 25: Stokes 2nd problem
- Lecture 26: Introduction to turbulence: basic concepts
- Lecture 27: Eddies
- Lecture 28: Eddies (contd) and Vortex shredding
- Lecture 29: Statistical description of turbulent flows
- Lecture 30: Reynolds stress
- Lecture 31 : Reynolds averaged Navier Stokes equation (RANS)
- Lecture 32 : Prandtl's mixing length
- Lecture 33 : Wall effect in turbulent flow
- Lecture 34 : Introduction to Boundary layer: scaling and order of magnitude analysis
- Lecture 35 : Scaling and order of magnitude analysis (contd.)
- Lecture 36: Flow over a fat plate: Blasius equation
- Lecture 37: Momentum integral method for boundary layer analysis
- Lecture 38: Approximate solution of the momentum integral equation
- Lecture 39: Displacement and Momentum thickness
- Lecture 40: Illustrative examples
- Lecture 41 : Boundary layer separation
- Lecture 42 : Resultant force on a body immersed in a fluid under motion
- Lecture 43 : Potential flow
- Lecture 44 : Examples of Potential flow
- Lecture 45 : Some more examples of Potential flows, Lift and Drag force
- Lecture 46 : Applications of lift and drag force
- Lecture 47 : Some examples of flow past immersed bodies
- Lecture 48 : Sports Ball aerodynamics
- Lecture 49 : Introduction to compressible flows
- Lecture 50 : Significance of Mach number
- Lecture 51 : Stagnation properties
- Lecture 52 : Isentropic flow through variable area ducts
- Lecture 53 : Some example problems on isentropic flow
- Lecture 54 : Normal Shock
- Lecture 55 : Converging norzzle
- Lecture 56 : Converging-diverging nozzle
- Lecture 57 : lllustrative example on a converging-diverging nozzle
- Lecture 58 : Adiabatic flow with friction in a constant area duct
- Lecture 59 : Review Lecture - I
- Lecture 60 : Review Lecture - II