Executive Development Programme in Experimental Aerodynamics Methods

This Executive Development Programme in Experimental Aerodynamics Methods is tailored for senior engineers, managers, and executives in the aerospace and automotive industries. Participants will gain advanced skills in experimental methods, including wind tunnel testing, computational fluid dynamics, and aerodynamic testing facilities management.

Attendees will learn to apply these methods to solve complex aerodynamic challenges, optimize designs, and enhance product performance. The course also focuses on integrating experimental data with theoretical models to drive innovation and competitive advantage in their organizations.

1. 1. Fundamentals of Aerodynamics: Learners will study basic principles of fluid dynamics and aerodynamic forces, gaining an understanding of airflow around objects. Practical skills include using computational tools to visualize and analyze simple aerodynamic scenarios.
2. 2. Experimental Aerodynamic Techniques: This module covers various experimental methods used in aerodynamics, such as wind tunnel testing and model aircraft design. Learners will learn to conduct experiments and interpret results accurately.
3. 3. Advanced Flow Visualization Techniques: Focusing on high-resolution flow visualization techniques, including schlieren and Particle Image Velocimetry (PIV). Learners will gain hands-on experience in setting up and interpreting flow visualization experiments.
4. 4. Computational Fluid Dynamics (CFD) Basics: Introduction to CFD software and numerical methods for solving aerodynamic problems. Learners will develop skills in modeling complex geometries and simulating real-world aerodynamic phenomena.
5. 5. Wind Tunnel Testing Methods: Detailed exploration of wind tunnel testing procedures, including setup, calibration, and data acquisition. Practical skills include conducting wind tunnel tests on various aircraft models.
6. 6. Advanced Aerodynamic Design: Focuses on the design of aerodynamic surfaces for improved performance. Learners will apply aerodynamic principles and use design software to create optimized aerodynamic shapes.
7. 7. Experimental Aerodynamics in Subsonic Flows: Examination of aerodynamic behavior in subsonic flow regimes, including boundary layer effects and shockwave dynamics. Practical skills include analyzing subsonic flow data from experiments.
8. 8. Supersonic Aerodynamics: Study of aerodynamic principles and experimental techniques in supersonic flow conditions. Learners will learn to analyze and interpret data from supersonic wind tunnel tests.
9. 9. Hypersonic Aerodynamics: Introduction to aerodynamic challenges in hypersonic regimes, including heating effects and gas dynamics. Practical skills include using specialized software for hypersonic flow analysis.
10. 10. Integration of Experimental and Computational Methods: Final module focusing on integrating experimental and computational aerodynamic data to solve complex aerodynamic problems. Learners will work on a project that combines both approaches.