MITx: Introduction to Aerodynamics course Syllabus
Full curriculum breakdown — modules, lessons, estimated time, and outcomes.
This course provides a comprehensive introduction to the principles of aerodynamics, focusing on airflow behavior, aerodynamic forces, and engineering applications. Over approximately 16–22 weeks of part-time study, learners will progress through foundational theories, airfoil and wing design, fluid flow modeling, real-world applications, and a final analysis project. Each module combines theoretical concepts with practical examples from aerospace, automotive, and renewable energy systems, requiring a strong background in mathematics and physics. The course concludes with a capstone project applying aerodynamic principles to real engineering challenges.
Module 1: Fundamentals of Aerodynamics
Estimated time: 12 hours
- Introduction to airflow and fluid motion
- Generation of aerodynamic forces: lift and drag
- Pressure and velocity relationships in airflow
- Basic equations governing aerodynamic flow
- Analysis of simple flow patterns and systems
Module 2: Airfoil & Wing Aerodynamics
Estimated time: 16 hours
- Principles of lift generation by airfoil shape
- Pressure distribution around wings
- Effects of wing geometry on aerodynamic efficiency
- Performance analysis of aircraft wing designs
Module 3: Fluid Flow & Aerodynamic Modeling
Estimated time: 16 hours
- Introduction to potential flow theory
- Application of fluid dynamics equations
- Modeling airflow behavior using mathematical techniques
- Computational methods in aerodynamic simulation
Module 4: Applications of Aerodynamics
Estimated time: 12 hours
- Aircraft design and performance optimization
- Aerodynamics in automobiles and racing vehicles
- Wind turbines and renewable energy systems
- Analysis of aerodynamic efficiency and energy consumption
Module 5: Final Aerodynamics Analysis Project
Estimated time: 16 hours
- Evaluation of airflow and forces on an aerodynamic structure
- Application of aerodynamic equations to real-world scenarios
- Interpretation of performance metrics and design implications
Prerequisites
- Strong foundation in calculus and differential equations
- Basic knowledge of classical mechanics and physics
- Familiarity with engineering principles and mathematical modeling
What You'll Be Able to Do After
- Explain how aerodynamic forces influence motion in engineering systems
- Analyze pressure distribution and lift generation around airfoils
- Apply mathematical models to predict aerodynamic performance
- Evaluate design efficiency in aircraft, vehicles, and wind turbines
- Interpret results from aerodynamic simulations and real-world data