Aerospace Engineering roadmap

Aerodynamics, propulsion, avionics and space systems.

Start with Aerospace Fundamentals, follow the steps in order, then build a project, prepare for interviews and earn your certificate.

Foundations

  1. Aerospace Fundamentals — How and why things fly. The starting point: what aerospace engineers do, the four forces and the lift equation, the standard atmosphere and airspeeds, and the fluid-mechanics basics — fluid properties, continuity and Bernoulli — that everything else builds on.
  2. Aerodynamics — Airfoils, wings, drag, shocks and CFD. How air flows around vehicles: laminar and turbulent flow, airfoils and lift, finite wings and induced drag, boundary layers and separation, compressible and supersonic flow, and how wind tunnels and CFD produce aerodynamic data.
  3. Flight Mechanics — Performance, manoeuvres, stability and control. What an aircraft can do and how it behaves: range, endurance, climb and take-off performance, turns and the V-n diagram, and static and dynamic stability with control surfaces.

Core skills

  1. Propulsion — Propellers, jet engines and rockets. Producing thrust efficiently: momentum and thermodynamics foundations, propulsive efficiency, compressors and turbines, the Brayton cycle and gas-turbine engines, and rocket propulsion with staging.
  2. Structures & Materials — Light, strong and durable airframes. Carrying loads with minimum weight: bending, torsion and buckling, thin-walled semi-monocoque structures, aerospace alloys and composites, additive manufacturing, fatigue, damage tolerance and aeroelasticity.

Advanced

  1. Space Systems — Orbits, manoeuvres and spacecraft. Astronautics: kinematics and dynamics, orbital mechanics and Kepler's laws, Hohmann transfers and Δv budgets, spacecraft subsystems, radiative heat transfer for thermal control, and antennas for communication.
  2. Avionics & Flight Control — Sensors, navigation, radar and fly-by-wire. The electronics that navigate and fly aircraft: air data, inertial and satellite navigation, radar, Kalman-filter sensor fusion, PID control, and fly-by-wire flight control systems and autopilots.
  3. Design, Certification & the Future — From requirements to certified aircraft — and beyond. Bringing it together: conceptual design and sizing, airworthiness and safety engineering, and the future of flight — drones, eVTOL air taxis, electric and hydrogen aircraft.

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