
Kick off the course by outlining the airplane’s structure and flight phases, from power sources and engines to takeoff, flight dynamics, and landing, with cockpit insights and hands-on demonstrations.
Explore top, side, and front views of an airplane to locate the fuselage, engines, and tail, and examine fixed-wing design, appendages, and material evolution from aluminium to composites.
Explore how landing gear supports the aircraft on wheels during taxi, landing, and takeoff, and how tricycle and tail-dragger configurations, nitrogen-filled tires, and retractable hydraulics minimize drag.
Explore how energy powers aircraft by examining engines, power sources, and their technical specifications. Understand how the fuselage, landing gears, and surface support takeoff, flight options, and directional movement.
Explore how a petrol engine converts fuel into power through a five-step cycle—intake, compression, ignition, expansion, and exhaust—using a piston, cylinder, spark plug, and crankshaft.
Diesel engines use air-only intake, high compression, and spray-injected fuel that auto-ignites from hot air. In contrast, petrol engines mix air and fuel and require a spark.
Explore how airplane engines generate thrust with propellers and rotor blades, contrast them with car engines, and explain propulsion via Newton's third law.
Explore how jet engines convert fuel into high-speed exhaust to generate thrust, detailing intake, compression, combustion, expansion, and exhaust, plus the role of bypass for efficiency.
Learn how bypass ratio in turbojet engines impacts thrust and efficiency, analyzing mass flow, momentum, and fuel-air mixing to optimize aircraft propulsion.
Discover how aircraft store fuel in hollow wing sections with integral tanks, and compare rigid removable and bladder tank options. Learn about aviation gasoline and jet fuel and their roles.
Explore how the airfoil's curved cross section and angle of attack influence lift, and review leading edge, trailing edge, camber line, and aspect ratio.
Explore how a spoon and water flow illustrate lift from deflected flow, explained by Newton's third law. Learn that airfoil aerodynamics involve lift, drag, thrust, and angle of attack.
Explore airplane motion by examining the roll axis and rolling motion, the pitching motion about the pitch axis, and a top-view axis discussed to understand how these movements are generated.
Utilize the ailerons to create differential lift and drag across the wings, initiating rolling motion around the central axis. Adjust opposite flaps to roll the airplane left or right.
Learn how elevators steer airplane pitch by moving rear flaps to alter drag and lift, causing the tail to rise or fall through coordinated elevator motion.
Explain how horizontal and vertical stabilizers provide flight stability. Describe how slats and flaps boost lift for takeoff and landing, and how spoilers increase drag to aid slower, controlled approaches.
Turn the airplane by rolling about the central axis to bank the aircraft. During landing, reduce speed and deploy flaps and spoilers to descend and flare before touching down.
In this Course, We tried to talk about all the Components of the plane's details and how it functions in different parts of it from the time it is Takeoff until it is Landing and explain about the function of the engines , airfoils , rudder and anything else about the entire plane