| 0. Introduction |
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1. Basic Equations
- 1.1 Description of Flow
- 1.2 Mass & Momentum Conservation
- 1.3 Transport Theorem
- 1.4 Continuity Equation
- 1.5 Euler's Equation
- 1.6 Newtonian Fluids
- 1.7 Navier-Stokes Equation
- 1.8 Boundary Conditions
- 1.9 Body Forces, Gravity
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2. Similitude
- 2.1 Dimensional Analysis
- 2.2 Similarity Parameters
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3. Ideal (Inviscid) Fluid Flow
- 3.1 Introduction
- 3.2 Vorticity, Kelvin's Th.
- 3.3 Potential Flow
- 3.4 Bernoulli's Equation
- 3.5 Boundary Conditions
- 3.6 Stream Function
- 3.7 Simple Potential Flows
- 3.8 Method of Images
- 3.9 D'Alembert's Paradox
- 3.10 Lift Due to Circulation
- 3.11 Unsteady Motion, Added Mass
- 3.12 Slender-Body Approx.
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4. Real (Viscous) Fluid Flow
- 4.1 Flow Past a Sphere
- 4.2 Drag on a Flat Plate
- 4.3 Plane Couette Flow
- 4.4 Poiseuille Flow
- 4.5 Unsteady Flow over a Flat Plate
- 4.6 Laminar Boundary Layer
- 4.7 Turbulent Flow, Reynolds' Stress
- 4.8 Turbulent Boundary Layer
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5. Model Tests
- 5.1 Steady Flow
- 5.2 Unsteady Forces
- 5.3 Drag on a Ship Hull
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6. Surface Waves
- 6.1 Introduction
- 6.2 Small Amplitude Waves
- 6.3 Plane Progressive Waves
- 6.4 Wave Dispersion
- 6.5 Mass Transport
- 6.6 Superposition
- 6.7 Group Velocity, Wave Energy
- 6.8 2D Ship Waves, Wave Resistance
- 6.9* 3D Ship Wave Pattern
- 6.10 Wave Forces on a Body
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7. Lifting Surfaces
- 7.1 Lift and Drag of a Foil
- 7.2 2D Lifting Surfaces, Linearized
theory, Analysis & Design Probs.
- 7.3* 3D Lifting Surfaces
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7.4* Propellers
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