Fundamentals of Aeronautical Engineering & Aviation Career Pathways

Phase 1: Aerodynamics & Flight Principles (Weeks 1–3)

• Week 1: Fundamentals of Fluid Flow
  • Subsonic fluid flow theory, mechanisms of lift (Coanda effect to circulation), and drag definitions.
  • Practical: Introduction to the wind tunnel; measuring boundary layer behaviour.
• Week 2: Aerodynamic Optimization
  • Aerofoil design, high-lift devices, wings, spoilers, fairings, and downforce definitions.
  • Practical: Wind tunnel testing of different aerofoil shapes to plot lift-to-drag ratios.
• Week 3: Aircraft Structures & Flight Controls
  • Basic aircraft structural components and load paths.
  • Primary vs. secondary flying controls and aerodynamic control devices.
  • Practical: Flight simulator orientation; mapping control surface inputs to aircraft attitudes.

Phase 2: Aircraft Subsystems & Powerplants (Weeks 4–6)

• Week 4: Propulsion Systems
  • Construction, design features, and operating principles of gas turbine engines. Introduction to rocket propulsion.
  • Practical: Flight simulator propulsion management; analysing engine parameters across varied thrust settings.
• Week 5: Electrical & Fuel Systems
  • Aircraft AC/DC electrical distribution networks, generation, and aircraft battery storage. Propulsion-matched fuel feed and transfer systems.
  • Practical: Group system-mapping exercise; diagnosing a fuel leak or electrical bus failure.
• Week 6: Environmental Control & Emergency Systems
  • Cabin pressure and temperature control systems (Pneumatics/Bleed air). Fire detection, protection, and emergency undercarriage systems.
  • Practical: Group system-mapping exercise; emergency descent protocols in the flight operation.

Phase 3: Avionics, Instrumentation & Digitization (Weeks 7–8)

• Week 7: The Modern Cockpit & Sensors
  • Glass cockpit architectures, primary flight displays (PFDs), and standard instruments. Pitot-static systems and instrumentation sensors.
  • Practical: Flight instrument calibration and interpretation under instrument flight rules (IFR) simulation.
• Week 8: Avionic Subsystems & Autopilot
  • Introduction to communications, navigation systems, radar, and automatic flight control systems (Autopilot).
  • Practical: Programming automated flight paths and managing system coupling in the real navigation environment.

Phase 4: Safety, Regulations & Human Factors (Weeks 9–10)

• Week 9: International Regulatory Frameworks & SMS
  • Role of international standards (Certification Specifications [CS], ISO, FAA, CAA, EASA). Core principles of Safety Management Systems (SMS).
  • Practical: Drafting an initial hazard identification and risk mitigation matrix for an airport operation.
• Week 10: Accident Investigation & Human Factors
  • Aircraft accident investigation methodologies. Human factors within aviation (physiology, fatigue, communication errors, and psychology).
  • Practical: Comprehensive case study analysis of iconic aviation incidents (e.g., design failures vs. human error).

Phase 5: Future Flight & Career Pathway Execution (Weeks 11–12)

• Week 11: Sustainable Aviation & Future Concepts
  • Researching future aircraft concepts, including hybrid, fully electric, and hydrogen fuel cell propulsion systems.
  • Practical: Designing a conceptual zero-emission pleasure aircraft for 2–6 passengers.
• Week 12: Career Pathway Mapping & Portfolio Presentation
  • Deep dive into the specific requirements for: Pilot training (ATPL), EASA Part 66 B1 (Mechanical), EASA Part 66 B2 (Avionics), and BEng/BSc Academic paths.
  • Practical: Final portfolio presentation, career action-plan review, and professional mock interviews.