How do you fly an airplane?

To fly an airplane, a pilot controls pitch, roll and yaw with the yoke or stick and rudder pedals, manages thrust with the throttle, and uses trim and flaps as required. Safe flight combines these controls with an appropriate outside visual scan, instrument checks, aircraft-specific procedures and formal instruction.

For our Aviation & Real-World Flying readers, the safety boundary is simple: a written explanation or home simulator cannot qualify anyone to operate a real aeroplane. Learn with a qualified instructor and follow the aircraft flight manual or pilot's operating handbook, abbreviated AFM or POH. Speeds, limitations and checklists differ between aircraft.

What controls do you use to fly an airplane?

A pilot flies by making small, coordinated control inputs and watching how the aircraft responds in attitude, airspeed, altitude and direction.

Many trainers also have mixture and carburettor-heat controls, while more complex aircraft may add propeller, speed-brake, landing-gear and automated flight controls. Our plain-English tour of a Cessna 172's controls and instruments shows how these items fit together in a typical training cockpit.

Banking redirects part of the wing's lift sideways, which makes the aircraft turn. The ailerons establish the bank, the rudder counters unwanted yaw, and the elevator helps maintain the desired flight path; our explanation of how bank, lift and rudder combine in a turn covers that coordination in more detail.

What happens from take-off to landing?

A normal flight follows a planned sequence of preparation, taxi, take-off, climb, cruise, descent, approach and landing.

This outline describes a conventional tricycle-gear light trainer. Tailwheel aircraft, seaplanes, high-performance types and transport aircraft require different handling techniques and procedures.

1. Prepare. Check weather, fuel or energy, mass and balance, aircraft condition, runway suitability and the intended route. Complete the approved cockpit and pre-flight checklists rather than relying on memory alone.
2. Taxi. Control direction with the pedals, brakes or tiller as fitted. In most light aircraft, turning the yoke does not steer the nosewheel like a car's steering wheel, although it may need to be positioned for the wind.
3. Take off. Align with the centreline, apply power as specified, check the engine indications and keep straight with rudder. At the published rotation speed, raise the nose smoothly and establish the recommended climb attitude and airspeed. Retract gear and flaps only when the checklist and performance schedule require it.
4. Climb and level off. Use the prescribed power and pitch attitude, monitor engine indications and look for traffic. Approaching the target altitude, lower the nose to the cruise attitude, adjust power, let the speed settle and trim away sustained pressure.
5. Fly and turn. Hold a reference attitude, cross-check the instruments and make small corrections. Before turning, clear the surrounding airspace, roll into bank with coordinated aileron and rudder, maintain the required pitch, then begin rolling out before reaching the desired heading.
6. Descend and approach. Reduce power or configure the aircraft as the POH directs, maintain the planned airspeed and complete the landing checks. A stabilised final approach has the correct configuration, speed, descent path and alignment without large corrections.
7. Land or go around. Transition into the round-out and flare, allowing a conventional tricycle-gear aircraft to touch down on its main wheels before lowering the nosewheel. Maintain directional control and brake as required. If the approach is unstable, the runway is obstructed or the touchdown is unsafe, apply the published go-around procedure instead of trying to rescue the landing.

How do pitch, power and trim work together?

Pitch, power and trim are coupled: pitch changes angle of attack immediately, power changes the aircraft's energy, and trim removes the force needed to hold the chosen attitude.

• In a climb, select the permitted climb power and pitch for the published climb speed.
• In level flight, use a known attitude and power setting, allow the aircraft to settle, make a measured correction and then retrim.
• In a descent, reduce power and adjust pitch to obtain the required airspeed and descent path without exceeding limitations.
• On final approach, use coordinated pitch and power changes. Pitch usually protects the target airspeed while power helps adjust the flight path, but changing either affects both.

The familiar rule pitch for speed, power for altitude can be useful during a stabilised approach, but it is not a universal law. Pulling back without sufficient energy may briefly raise the nose while airspeed decays and angle of attack increases towards a stall. Trim cannot fix an incorrect power setting or an unsafe attitude.

Common beginner mistakes and their fixes

Most early handling errors come from overcontrolling, looking at one indication for too long or applying the right control at the wrong moment.

• Chasing the instruments: establish a sensible outside attitude, pause for the aircraft to respond, then cross-check the instruments instead of correcting every needle movement.
• Gripping the controls: use light pressure and small inputs. A tight grip hides control feedback and encourages oscillation.
• Turning with rudder alone: bank with aileron and use rudder to keep the turn coordinated. Rudder by itself produces yaw and may create a skid.
• Pulling harder to maintain a failing climb: protect airspeed and angle of attack. Use the aircraft's approved stall-avoidance or recovery procedure rather than trying to force the nose upward.
• Trimming too soon: hold the required attitude and power, wait for performance to settle, then trim away the remaining pressure.
• Using memorised generic speeds: take every operational speed from the correct AFM, POH or checklist, adjusted for the stated conditions where required.
• Forcing a poor landing: go around when the approach is not stabilised. Continuing because the aircraft is already close to the runway removes safer options.

Can a flight simulator teach you to fly a real airplane?

A flight simulator can teach cockpit layout, checklists, instrument scanning, navigation and procedural sequence, but it cannot replace instruction in a real aircraft.

Consumer controls rarely reproduce genuine control forces, trim behaviour, motion, peripheral vision or the physical cues of a stall and hard landing. A simulator can also reinforce poor habits when the aircraft configuration, weather, failures or operating speeds are unrealistic.

Use our guide to practising the full take-off and landing sequence in a simulator to build procedural familiarity, then compare that practice with an instructor's methods. Our explanation of what ground school covers and where simulation fits sets out the knowledge and real-world training that software cannot supply.

The practical route to flying a real aeroplane is structured ground study, dual instruction, supervised practice and, where the local rules permit, authorised solo flying followed by the required examinations and skill test. Licensing, medical and experience requirements depend on the jurisdiction and type of operation.