Flight Vehicle Aerodynamics
Professional aerospace training focused on aerodynamic flow modelling, airfoil and lifting-surface analysis, compressible flows, boundary layers and aerodynamic performance of flight vehicles.
Flight Vehicle Aerodynamics
This professional programme develops advanced understanding of aerodynamic flow behaviour and its application to modern flight vehicle analysis, performance and engineering design.
Course Overview
The programme provides professional-level training in aerodynamic flow modelling, airfoil and lifting-surface theory, boundary-layer behaviour, compressible flow and aerodynamic force analysis. Participants also examine experimental techniques and aerodynamic models used in flight-dynamics applications.
The training is structured around the key technical areas reflected in MIT AeroAstro's Flight Vehicle Aerodynamics subject, including subsonic, transonic and supersonic aerodynamic flows.
Professional Learning Objectives
- Understand aerodynamic flow modelling and representation techniques.
- Analyse airfoil and lifting-surface aerodynamic behaviour.
- Understand laminar and turbulent boundary-layer effects.
- Analyse aerodynamic forces in nearfield and farfield conditions.
- Understand subsonic, transonic and supersonic compressible flows.
- Apply experimental methods and aerodynamic measurement techniques.
- Understand aerodynamic models used in flight-dynamics analysis.
Who Should Attend
Course Programme
Day 1 — Aerodynamic Flow Modelling
- Fundamentals of aerodynamic flow modelling
- Flow representation techniques
- Potential-flow concepts
- Airfoil aerodynamic behaviour
- Lifting-surface theory
- Aerodynamic performance fundamentals
Day 2 — Boundary Layers & Viscous Aerodynamics
- Laminar boundary layers
- Turbulent boundary layers
- Boundary-layer effects on aerodynamic performance
- Flow separation and aerodynamic losses
- Nearfield and farfield aerodynamic behaviour
- Aerodynamic force analysis
Day 3 — Compressible Aerodynamics
- Fundamentals of compressible aerodynamic flows
- Subsonic aerodynamic flows
- Transonic flow behaviour
- Supersonic aerodynamic flows
- Shock and expansion phenomena
- Compressible-flow performance considerations
Day 4 — Experimental Aerodynamics & Measurement
- Experimental aerodynamic methods
- Aerodynamic measurement techniques
- Wind-tunnel testing concepts
- Aerodynamic data interpretation
- Validation of aerodynamic models
- Engineering application of experimental results
Day 5 — Flight Vehicle Aerodynamic Applications
- Aerodynamic models for flight dynamics
- Aircraft performance applications
- Aerodynamic design considerations
- Integration of aerodynamic data into vehicle analysis
- Engineering case studies
- Final technical discussion and review
Flight Vehicle Aerodynamics in Practice
The programme connects aerodynamic theory with practical flight-vehicle engineering, helping participants understand how aerodynamic behaviour influences aircraft performance, analysis and design decisions.
Build Professional Aerospace Expertise
Register for professional Flight Vehicle Aerodynamics training with Capital Consultants.