SES # | TOPICS | READINGS | |
---|---|---|---|
1. The Continuum Viewpoint and the Equation of Motion | |||
L1 | Introduction: Continuum Hypothesis | [K&C] Sections 1.1-1.6, 3.1-3.5, and 4.1-4.6. [Fay] Chapters 1, 2, 3, and 4, pp. 39-44, 89-97, and 128-132. Review: [K&C] "Vector Calculus." Chapter 2. | |
L2 | The Material Derivative Lagrangian and Eulerian Descriptions Thermophysical Properties Compressibility Effects in Gases | ||
T1 | Tutorial Session | ||
L3 | Forces Acting on a Continuum The Inviscid Fluid | ||
2. Static Fluids | |||
L4 | Static Fluids | [K&C] Chapter 1 and sections 4.1-4.3. [Fay] Chapter 2, pp. 44-75. Note: There is little detail of hydrostatics in [K&C]; for a better in-depth review either see your own undergraduate text or the section of [Fay]. | |
T2 | Tutorial Session | ||
3. Mass Conservation in Flowing Media | |||
L5 | Mass Conservation in Flowing Media | [K&C] Sections 3.6, 3.7, 3.13, and 4.1-4.3. [Fay] Chapter 3 | |
4. Inviscid Flow | |||
L6 | Steady Bernoulli Equation | ||
T3 | Tutorial Session | ||
L7 | Unsteady/Generalized Forms of the Bernoulli Equation | ||
5. Control Volume Theorems and Applications | |||
L8 | The Reynolds Transport Theorem | [K&C] Chapter 4 Sonin, A. A. "Fundamental Laws of Motion for Particles, Material Volumes, and Control Volumes." (PDF - 1.5 MB) Essential reading: This chapter is extremely detailed and you need to spend the time to go through it in some detail. | |
T4 | Tutorial Session | ||
L9 | Conservation of Mass/Energy/Entropy | ||
T5 | Tutorial Session | ||
L10 | Conservation of Linear Momentum Examples of Conservation of Linear Momentum | ||
T6 | Tutorial Session | ||
Quiz 1 | |||
L11 | Conservation of Angular Momentum | ||
T7 | Tutorial Session | ||
6. Navier-Stokes Equation and Viscous Flow | |||
L12 | Kinematics of Deformation | [K&C] Chapter 9 | |
L13 | The Navier-Stokes Equation Boundary Conditions for Navier-Stokes Equations | ||
T8 | Tutorial Session | ||
L14 | Fully Developed Flows, Stability of Viscous Flows | ||
L15 | Start-up and Transient Flows Similarity Solution for a Flat Plate (The Rayleigh Problem) | ||
T9 | Tutorial Session | ||
L16 | Quasi-Fully Developed Flows: Lubrication Theory | ||
T10 | Tutorial Session | ||
7. Dimensional Analysis | |||
L17 | The Buckingham Pi Theorem Physical Significance of Dimensionless Variables | [K&C] Chapter 8 Buckingham Pi Theorem (PDF) Sonin, A. A. "Physical Basis of Dimensional Analysis." Manuscript handout. | |
T11 | Tutorial Session | ||
L18 | Asymptotic Limits of the Governing Equations and Scaling with Dimensionless Variables | ||
8. Potential Flow Theory | |||
L19 | The Velocity Potential and Streamfunction Complex Variable Formulation | ||
T12 | Tutorial Session | ||
L20 | Examples of Potential Flow Solutions | ||
Quiz 2 | |||
9. Boundary Layers, Separation and Drag | |||
L21 | Boundary Layer on a Flat Plate Effect of a Pressure Gradient Separation | ||
T13 | Tutorial Session | ||
10. Vorticity and Circulation | |||
L22 | Definition of Circulations Kelvin's Circulation Theorems Lift, Induced Drag | ||
T14 | Tutorial Session | ||
11. Surface Tension and its Importance | |||
L23 | Free Surface Force Balance Scaling and Dimensional Analysis | ||
L24 | Sample Flows | ||
T15 | Tutorial Session | ||
12. Turbulence (v. Brief Introduction) | |||
L25 | Mean and Fluctuating Quantities Reynolds Stresses, Eddy Viscosity, Taylor Microscale Homogeneous and Wall-Bounded Turbulence Kolmogorov Energy Cascade | ||
L26 | Turbulence (Conclusions) Course Review | ||
Final Exam |