Learn how to control taxi speed and steer an aircraft using thrust, brakes, pedals and tiller, with safe turn technique and common errors fixed.
Control taxi speed with the lowest practical thrust, reducing power early and applying the wheel brakes briefly and smoothly instead of riding them. Steer through the aircraft’s nosewheel or tailwheel system—usually rudder pedals in light aircraft and a tiller for larger airliner turns—with differential braking only when the aircraft’s procedures permit it.
For Aviation & Real-World Flying, the aircraft flight manual, operator procedures and local restrictions take precedence. There is no universal taxi-speed limit or steering arrangement that applies to every aircraft.
A practical technique for controlling taxi speed
A smooth taxi comes from anticipating acceleration rather than correcting it with continuous braking.
- Check the path: Confirm the route is clear, release the parking brake and keep your feet ready on the normal wheel brakes.
- Start with minimal power: Apply only enough thrust to overcome breakaway resistance. A jet may continue moving at idle once rolling, while a piston aircraft may need occasional small power increases.
- Reduce power early: Return towards idle as soon as the aircraft starts accelerating. Do not hold excess power and oppose it with the brakes.
- Verify the brakes: Shortly after moving, make a gentle brake application if required by the aircraft’s procedure. Confirm that both sides respond evenly.
- Brake in short applications: Apply both brakes smoothly, reduce the speed, then release them. Continuous pressure creates unnecessary heat and wear.
- Slow before turning: Establish the required speed while travelling straight, then steer into the turn. Accelerate only after the aircraft is aligned with the new taxiway.
The parking brake is not a normal speed-control device, and reverse thrust should not be used for routine taxi-speed control unless the aircraft and operator specifically permit it.
Which controls steer an aircraft while taxiing?
The correct steering control depends on how the particular aircraft’s nosewheel or tailwheel is designed.
| Aircraft arrangement | Primary steering method | Main consideration |
|---|---|---|
| Light aircraft with linked nosewheel | Rudder pedals | Pedal movement turns the nosewheel; toe brakes provide braking and can tighten a turn. |
| Free-castering nosewheel | Differential braking, assisted by power and rudder | The rudder may have little effect at very low speed, so brake inputs must be measured. |
| Transport airliner | Tiller for larger turns; rudder pedals for small corrections | Tiller authority is much greater, so abrupt inputs can create sharp turns and tyre scrubbing. |
| Tailwheel aircraft | Rudder pedals, steerable tailwheel and differential braking | Directional changes develop quickly and require early correction. |
The control column or yoke normally does not steer the nosewheel. In light aircraft, pedal steering and toe brakes can feel closely connected; our guide to Cessna 172 pedals, brakes and throttle controls explains that typical arrangement.
On many airliners, use the tiller for low-speed manoeuvring and the rudder pedals for modest centreline corrections. The exact handover between them is aircraft-specific. For a representative example, see our detailed A320 tiller and taxi-turn technique.
How fast should an aircraft taxi?
An aircraft should taxi slowly enough to stop within the visible clear distance and complete the next turn without excessive tyre side-load or braking.
Use walking pace around stands, people, equipment and confined areas. Sharp turns are commonly taken at about 10 knots or less, while some airline procedures permit roughly 20–30 knots on a long, straight and dry taxiway. These are common reference ranges, not universal limits or target speeds.
Reduce speed further on wet, icy or contaminated pavement, in strong wind, on slopes, near obstacles or whenever the route is uncertain. Follow any published airport restriction and the aircraft operator’s limit.
Where fitted, read taxi speed from the ground-speed display. A conventional airspeed indicator is unreliable or inactive at ordinary taxi speeds, so it should not be used to judge how quickly the aircraft is moving.
How do you make a smooth taxi turn?
A smooth taxi turn begins with reducing speed before applying substantial steering.
- Scan the taxiway exit, wingtip clearance and the path of the main landing gear rather than staring immediately ahead of the nose.
- Apply the tiller or pedal progressively; avoid snapping directly to a large steering angle.
- Use only enough thrust to keep rolling. Adding substantial power during the turn increases speed and can create propeller or jet blast behind the aircraft.
- Use differential braking only where needed and permitted. Holding the inside brake while applying high power produces heat and tyre scrub.
- Begin straightening before reaching the new centreline so the aircraft does not overshoot and require an opposite steering correction.
Remember that an airliner’s cockpit sits ahead of its nosewheel and the main wheels track inside the nosewheel’s path. Tight corners therefore require suitable clearance and aircraft-specific visual references, not simply placing the cockpit over the painted line.
Why does taxi steering feel wrong in a flight simulator?
Simulator taxi steering usually feels wrong because the steering axis, brake axes or assistance settings do not match the aircraft being flown.
Bind an analogue rudder or nosewheel-steering axis where possible; keyboard keys and buttons often command an unrealistically abrupt deflection. Check that left and right brake axes are not reversed, add a small dead zone for noisy pedals, and remove duplicate bindings that make the rudder and tiller fight each other.
Excessive creeping can also come from a throttle that does not reach idle. If the aircraft barely turns, determine whether it expects pedal-controlled nosewheel steering, a separate tiller axis or differential braking. Our simulator steering setup and troubleshooting guidance covers those control-assignment problems in detail.