Strategic Objectives
• Understand the complex coupling of thermal, elastic, and aerodynamic forces.
• Predict and mitigate high-Mach vibration challenges in next-gen vehicles.
• Master the mathematical frameworks specific to hypersonic flow regimes.
• Apply cutting-edge computational fluid dynamics to aeroelastic stability.
The Core Challenge
Traditional aerospace engineering fails when air becomes a high-energy plasma, causing unpredictable structural failures and catastrophic flutter.
01
The Hypersonic Frontier
02
Fundamentals of Aeroelasticity
03
Gas Dynamics at Extremes
04
The Thermal Barrier
05
Advanced Fluid Dynamics
06
Structural Dynamics
07
Hypersonic Flutter Phenomena
08
Piston Theory
09
Thermoelasticity
10
Computational Fluid Dynamics
11
Boundary Layer Effects
12
Materials for Extreme Flight
13
Finite Element Analysis
14
Aeroelasticity in Spaceplanes
15
Buffeting and Random Vibrations
16
Nonlinear Aeroelasticity
17
The Role of Rarefied Gas Dynamics
18
Hypersonic Wind Tunnel Testing
19
Control Surface Aeroelasticity
20
Aeroelastic Tailoring
21