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Engineering
Aerospace Engineering
Aerodynamics
1. Introduction to Aerodynamics
2. Properties of the Atmosphere
3. Fundamental Principles of Fluid Dynamics
4. Incompressible, Inviscid Flow
5. Incompressible, Viscous Flow
6. Airfoils and Two-Dimensional Wings
7. Three-Dimensional Wings and Finite Wing Theory
8. Compressible Flow Fundamentals
9. Subsonic and Transonic Aerodynamics
10. Supersonic and Hypersonic Aerodynamics
11. Aerodynamic Drag Analysis
12. High-Lift Systems and Flow Control
13. Aircraft Stability and Control
14. Propulsion Integration
15. Experimental Aerodynamics
16. Computational Fluid Dynamics
Three-Dimensional Wings and Finite Wing Theory
Transition from 2D to 3D
Fundamental Differences
Spanwise Flow Effects
Tip Effects
Wing Geometry Parameters
Planform Characteristics
Wingspan
Wing Area
Aspect Ratio
Taper Ratio
Geometric Angles
Sweep Angle
Dihedral Angle
Anhedral Angle
Incidence Angle
Planform Shapes
Rectangular Wing
Tapered Wing
Elliptical Wing
Delta Wing
Swept Wing
Induced Effects
Downwash
Physical Origin
Spanwise Distribution
Effects on Local Angle of Attack
Induced Drag
Vortex Drag Theory
Calculation Methods
Minimization Strategies
Induced Angle of Attack
Lifting-Line Theory
Prandtl's Model
Fundamental Assumptions
Mathematical Development
Elliptic Lift Distribution
Minimum Induced Drag
Spanwise Loading
Non-Elliptic Distributions
Theory Limitations
Wingtip Effects
Wingtip Vortices
Formation Mechanism
Vortex Structure
Persistence and Decay
Tip Loss Effects
Wingtip Modifications
Winglets
Wingtip Fences
Sharklets
Ground Effect
Physical Mechanism
Effects on Lift and Drag
Height Dependence
Operational Considerations
Takeoff and Landing
Ground Effect Vehicles
Wing Design Considerations
Aspect Ratio Effects
Sweep Effects
Subsonic Sweep Benefits
Sweep Penalties
Taper Effects
Twist Distribution
Geometric Twist
Aerodynamic Twist
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6. Airfoils and Two-Dimensional Wings
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8. Compressible Flow Fundamentals