| LEC # | TOPICS / READINGS | ASSIGNMENTS |
|---|---|---|
| Chapter 1: Basics | ||
| 1 | Eulerian and Lagrangian Descriptions of Fluid Motion | |
| 2 | Kinematics, Strain and Vorticity | |
| 3 | Kinematic Transport Theorem and Consequences | Homework 1: (1) Flow in a T-tube |
| 4 | Forces in the Fluid, Stresses and Cauchy’s Law | |
| 5 | Momentum Conservation Law | |
| 6 | Stress and Strain, Navier-Stokes Equations | |
| Recitation and Supplementary Reading: Cartesian Tensors | ||
| Chapter 2: Simple Deductions | ||
| 7 | Vorticity Theorems for Homogeneous and Stratified Fluids | Homework 2: (1) Voriticity and Mountain Waves, (2) Bubble Dynamics |
| 8 | Rayleigh Problem – Where Does Vorticity Come From? | |
| 9 | Scaling and Approximations | |
| Chapter 3: Slow Flows | ||
| 10 | Slow Spreading of a Mud Layer on an Incline | Homework 3: Mechanical Energy; Radome in the Rain; Lubrication Approximation |
| 11 | Selective Withdrawal into a Line Sink, Boundary Layer Approximation and Similarity Solution | |
| 12 | Stokes Flow Past a Sphere | |
| 13 | Mechanics of Aerosols |
Homework 4: Spreading of Lava on a Plane Take Home Midterm |
|
Supplementary Reading: Transient Slow Spreading of a Mud Layer on an Incline Supplementary Reading: Oseen’s Theory of Slow Flow Past a Cylinder |
||
| Chapter 3: High Reynolds Number Flows | ||
| 14 | Inviscid Irrotational Flows of a Homogeneous Fluid | |
| 15 | Bernoulli’s Theorems for Inviscid Homogeneous Fluids | |
| 16 | Example of Steady Boundary Layer; The Laminar Jet | |
| 17 | Effects of Variable Pressure Gradient | |
| 18 | Kármán’s Momentum Integral Approximation | |
| 19 | An Application to Transient Boundary Layer Along a Flat Plate | |
| 20 | Unsteady Boundary Layers | |
| 21 | Gust and Separation | Homework 5: Jet from a Point Source |
|
Supplementary Reading: Wave Boundary Layers; Stokes Theory Supplementary Reading: Induced Streaming - Eulerian and Lagrangian |
||
| Chapter 4: Transport of Heat or Mass | ||
| 22 | Thermal Energy; Mountain Wind | |
| 23 | Buoyant Plume from a Steady Source of Heat | |
| 24 | Homogenization and Dispersion in Oscillatory Flows in a Pipe | |
| Chapter 5: Introduction to Instability | ||
| 25 | Heruristic Argument of Kelvin-Helmholtz Instability; Linearized Analysis of K-H Instability; K-H Instabilty of a Continuously Stratified Fluid | |
| 26 | Rayleigh’s Inviscid Theory of Instability of Parallel Flows; Fjortoft’s Theorem | |
| 27 | Viscous Effects on Parallel Flow Instability | |
| Chapter 6: Flow and Transport in Porous Media | ||
| 28 | Porous Media and Darcy’s Law; Homogenization and Micro-Mechanical Basis of Darcy’s Law | |
| 29 | Saffman-Taylor Instability and Viscous Lingering; Convection in a Porous Layer with a Geothermal Gradient (Rayleigh Number) | Homework 6: (1) K-H Instability with Gravity, (2) Dispersion in an Open Channel Flow Down an Incline, (3) Hele-Shaw Analogy |
| 30 | Horton-Rogers-Lapwood Instability | |
|
Recitation and Supplemental Reading: Double Diffusion and Thermohaline Instability |
||
| Chapter 7: Earth Rotation and Coastal Flows | ||
| 31 | Rotating Coordinates and Coriolis Force | |
| 32 | Vorticity Theorem in Rotating Fluid; Shallow-Sea Approximation | |
| 33 | Steady Wind-Induced Flow in a Shallow Sea | |
| 34 | Nonuniform Forcing on the Sea Surface-Ekman Pumping | Take Home Final |
| 35 | Wind-Forced Waves in a Two-Layered Sea | |
| 36 | Coastal Upwelling |
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Fall
2002
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Course Info
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Fall
2002
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