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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
Supersonic and Hypersonic Aerodynamics
Shock Wave Theory
Shock Wave Properties
Conservation Laws Across Shocks
Normal Shock Waves
Rankine-Hugoniot Relations
Property Changes
Shock Strength
Oblique Shock Waves
Shock Angle Relations
Flow Deflection
Weak and Strong Shocks
Bow Shocks
Detached Shocks
Shock Standoff Distance
Expansion Waves
Prandtl-Meyer Expansion
Expansion Fan Theory
Property Changes in Expansion
Expansion Around Corners
Supersonic Flow Over Bodies
Linearized Supersonic Theory
Ackeret Theory
Thin Airfoil Assumptions
Pressure Coefficient
Lift and Drag Predictions
Shock-Expansion Theory
Method of Characteristics
Complex Geometries
Supersonic Wing Design
Swept Wings
Delta Wings
Arrow Wings
Hypersonic Flow Characteristics
Hypersonic Similarity
Thin Shock Layer
Viscous Interaction
Strong Interaction
Weak Interaction
High-Temperature Effects
Real Gas Effects
Chemical Reactions
Ionization
Heat Transfer
Aerodynamic Heating
Surface Temperature Effects
Thermal Protection Systems
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9. Subsonic and Transonic Aerodynamics
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11. Aerodynamic Drag Analysis