
Explore the basics of flight, from takeoff and landing to airplane construction, power fly-by-wire, cabin pressure sensors, IFR, ILS, TCAs, ATC, and emergency equipment.
Explore how aircraft balance weight with lift and thrust against drag using aerofoil shapes and Bernoulli principles, and control roll, pitch, and yaw with ailerons, elevators, and rudders.
Take-off requires generating enough lift within a limited runway, since thrust affects lift. Increase lift by raising the angle of attack or extending slats and flaps to lengthen the aerofoil.
Align with the runway horizontally and vertically using the glide slope and papi lights to stay on approach, then deploy flaps, spoilers, brakes, and reverse thrust to land and stop.
Explore how aircraft safety relies on safe life and failsafe concepts, including material life cycles, scheduled maintenance, redundancy, and gravity-based and hydraulic systems to ensure continual control.
Power electronics keep aircraft systems running by charging two batteries through engine-generated electrical energy, APU, ram air turbine, or ground power unit, with redundancy to handle engine failure.
Explore fly-by-wire systems that replace mechanical linkages with flight computers and signal-driven controls, moving aircraft surfaces like the ailerons, elevators, and rudder for lighter, safer flight.
Explain why planes fly higher to reduce drag and noise, and how bleed air, the pac air conditioning system, and cabin altitude keep the cabin pressurized for safe breathing.
Pilots learn instrument flight rules and how to fly by instruments using the altimeter, pitot tube, heading indicator, and attitude indicator to measure altitude, speed, heading, and attitude.
Learn how the instrument landing system uses localizer and glideslope cues to align with the runway, with the primary flight display and DME supporting a safe approach and autoland options.
Discover how the traffic alert and collision avoidance system uses aircraft transponders to detect nearby traffic, display threat levels, and guide pilots to climb or descend to avoid collisions.
Explore how ATC coordinates clearance, ground control, tower, departure/approach, and area control to keep aircraft safely separated and guide flights from gate to runway and back.
Discover emergencies in flight by examining oxygen masks and oxygen generators delivering at least 15 minutes of breathable air, and the orange flight data recorder and cockpit voice recorder.
The course teaches you about the fundamentals behind an airplane's systems, and how an airplane works. Taught in a very basic and easy-to-understand way, almost everyone can understand the contents of this course easily. This course covers the basics of flight, take-off, landing, construction, power, fly-by-wire, cabin pressure, sensors & IFR, ILS, TCAS, ATC, and emergencies. If some of those terms don't make sense to you, don't worry, the specific video covering that topic will introduce you to it from the ground up.
This course is designed for anyone interested in airplanes and how they work. After completing this course, you will learn to appreciate airplanes and the "magic" that goes into making flight safe. The next time you are on a flight, you will be able to identify the different systems and theorems at play and be able to share them with others.
Do take note that this is not a technical course. Meaning, I will not be going into the engineering details of airplanes. Things such as calculation of lift, take-off length, drag, thrust, etc, will not be covered in this video. However, if you are just enrolling in a diploma/degree that teaches you about the engineering principles of airplanes, going through this course may give you an insight into what you will be learning throughout your course of study.