How do I fly a correct traffic pattern in a simulator?

To fly a correct traffic pattern in a simulator, follow the published or ATC-assigned runway, circuit direction and altitude; climb on runway track, turn crosswind, fly a parallel downwind, descend through base and stabilise on final. Control spacing with visual references and go around if the approach becomes unstable.

In Aviation & Real-World Flying terms, traffic pattern and aerodrome circuit describe the same basic visual procedure. Traffic pattern is common North American usage; circuit is standard British usage. A mistake we see constantly is trying to rescue a poor final when the real error was excessive speed, bad spacing or late configuration on downwind.

Before take-off: identify the runway, circuit side and altitude

The correct circuit is the published local pattern or the one assigned by ATC, not a universal rectangle flown identically at every airport.

• Runway: use the runway assigned by ATC or established by local traffic and procedures. For offline practice, the runway most nearly into wind is usually a sensible starting point, but runway length, terrain and local restrictions can override the wind.
• Circuit direction: confirm left-hand or right-hand traffic. Normal circuit turns are made in that direction unless ATC or a published procedure instructs otherwise.
• Circuit altitude or height: use the published figure and its stated pressure reference.
• Local restrictions: check for noise-abatement routes, prohibited turns, parallel-runway procedures, terrain and other operations that alter the circuit shape.
• Aircraft figures: know the climb, downwind and approach speeds, flap limits and landing configuration from the aircraft checklist or operating information.

Wind reports help with runway selection and drift planning, but a METAR does not assign an active runway or specify the circuit direction. ATC, published airport information and observed traffic remain decisive.

Simulator scenery and navigation data can also disagree, especially after an airport redesign or when add-on scenery is installed. If runway identifiers or the physical layout do not match the data used by your controller or session, resolve the mismatch before joining traffic rather than improvising near the runway.

How do circuit height, altitude, QNH and QFE differ?

Use the pressure reference attached to the published circuit figure, because height above the aerodrome and altitude above mean sea level are not interchangeable.

If the circuit is 1,000 feet above aerodrome level and the field elevation is 500 feet, an altimeter set to QNH should indicate about 1,500 feet in the circuit. With correctly set QFE, where that system is used, it should indicate about 1,000 feet.

If no local figure exists and you are creating an offline light-aircraft exercise, roughly 800 to 1,000 feet above the aerodrome is a common training approximation. It is not a worldwide rule and must not replace published information.

How do I fly each traffic pattern leg?

Fly the circuit as a visual ground track, adjusting headings for wind instead of memorising five fixed compass headings.

1. Take off and establish the climb. Hold the runway centreline, set the specified climb attitude and airspeed, and correct for crosswind after lift-off. Do not chase heading alone; the aim is to remain on the extended runway track. Our light-aircraft take-off procedure explains rotation, crosswind control and the initial climb in more detail.
2. Continue on the departure leg. Climb straight ahead until reaching the published turning point, an ATC instruction or a safe turning height consistent with the local procedure. Do not turn simply because the runway end has passed beneath the aircraft.
3. Turn crosswind. Make a coordinated turn towards the circuit side while continuing the climb. Correct for drift so the crosswind ground track does not carry you too close to or too far from the runway.
4. Level and establish downwind. Fly parallel to the landing runway in the opposite direction, level at circuit altitude, set downwind power and speed, then trim. If ATC tells you to extend downwind, maintain altitude and configuration until an appropriate point rather than continuing indefinitely towards terrain or controlled airspace.
5. Complete the landing checks. Use the checklist for fuel, mixture, propeller, carburettor heat, fuel pump, harnesses, undercarriage and flap as applicable. Keep the runway at a repeatable visual distance, allowing for the fact that wing references change with aircraft type, seat position and simulator field of view.
6. Begin the descent at the briefed point. This is often abeam the intended touchdown area in a light trainer, but aircraft and local procedures differ. Reduce power, configure in stages, hold the target speed and retrim after each power or flap change.
7. Turn base according to position and wind. The threshold appearing roughly 45 degrees behind the wing can be an initial cue in many trainers, but it is not a fixed rule. Turn earlier when groundspeed or drift would otherwise produce an overshoot, and later when the wind is holding you away from final.
8. Roll onto final nearly stabilised. Use a coordinated turn and arrive close to the required speed, descent path and landing configuration. If you will overshoot the centreline, go around instead of tightening the turn or applying inside rudder to force the nose towards the runway.

The runway-extension leg after take-off is properly described as the departure or climb-out leg. Some pilots and controllers call it upwind, while stricter diagrams reserve upwind for a parallel leg on the opposite side of the runway. Follow local usage and concentrate on the assigned track.

How big should the traffic pattern be?

The pattern should provide enough room to configure, descend and make an unhurried base-to-final turn without creating an unnecessarily long final.

A slow trainer can normally fly a compact circuit. Faster singles, twins and transport aircraft need more room to slow and configure, subject to local limits. If every base turn feels steep and rushed, downwind is probably too close, the aircraft is too fast or configuration started too late. A long, flat, power-on final usually means the circuit is too wide or base was turned too early.

Wind changes the turn points even when the desired rectangular ground track stays the same. With a headwind on final, the aircraft normally has a tailwind on downwind and covers the ground quickly, so base may need to start earlier. A wind blowing along base towards final makes an overshoot develop rapidly.

Visual spacing references are aircraft-specific. A runway that appears halfway up the wing strut in one trainer may indicate entirely different spacing in another cockpit, and changing the simulator camera height or field of view can invalidate the cue.

Why do simulator pilots overshoot final?

A base-to-final overshoot usually starts with excessive speed, poor downwind spacing, a late turn or failure to anticipate crosswind.

Do not use inside rudder to drag the nose around while holding insufficient bank. That produces a skid; near the stall, a real aircraft can enter a spin with almost no height available for recovery. A deliberate forward slip, where approved for the aircraft, is a different manoeuvre from a skidding base-to-final turn.

Because a desktop simulator cannot reproduce every physical cue, monitor coordination, airspeed and trend closely. The safe response to a developing overshoot is to go around, not to exceed the bank limit chosen for the exercise.

What does a stable final approach look like?

A stable final has the aircraft configured for landing, close to target speed, tracking the centreline and following a controllable descent path with only small corrections required.

• The landing checklist is complete.
• Flap and undercarriage are set as required.
• Airspeed is within the aircraft's prescribed tolerance and not trending away from it.
• The aiming point remains nearly fixed in the windscreen.
• Pitch, bank, power and sink rate are manageable.
• Crosswind correction and runway alignment are under control.

There is no single stabilisation height or speed tolerance suitable for every aircraft. Set a clear short-final decision gate before flying and use the aircraft or operator criteria where provided. Our guide to judging the runway picture and descent path on a visual approach covers aiming points, PAPI or VASI indications, wind correction and the transition to landing.

When should I go around from the pattern?

Go around when the approach requires large, rushed or unsafe corrections, or whenever a safe landing is no longer assured.

Typical triggers include a badly overshot centreline, excessive or decaying airspeed, an unstable sink rate, incorrect configuration, conflicting traffic, a blocked runway or loss of the required visual reference. A severe bounce or poor directional control after touchdown can also justify a go-around if sufficient runway and aircraft control remain.

1. Apply the specified go-around power and control the resulting pitch change.
2. Arrest the descent and establish the correct climb attitude and speed while maintaining runway track.
3. Retract flap and undercarriage in the prescribed sequence. Abruptly removing all flap while low and slow can cause a dangerous loss of lift.
4. Follow the published or ATC-assigned path. Without a special procedure, climb safely and rejoin predictably while checking for traffic.

How should I join a traffic pattern from outside?

Join by the published local method or the route assigned by ATC, remaining clear of aircraft already established in the circuit.

• 45-degree join to downwind: common at many North American aerodromes, but not a worldwide default.
• Overhead join: used at some aerodromes to observe the runway, traffic and wind before descending to circuit height.
• Crosswind, downwind or base join: suitable when published or assigned and when it fits safely into the traffic sequence. If the terminology is unfamiliar, our explanation of where left base sits in the circuit clarifies the direction and expected turn onto final.
• Straight-in approach: permitted in some situations, but it is not a normal circuit entry and must not disrupt established traffic.

Do not cross the active side of a circuit at circuit altitude without a recognised procedure. At an uncontrolled aerodrome, radio calls improve awareness but do not make the runway clear or give permission to cut ahead of another aircraft.

How do I fit in with traffic already in the circuit?

Maintain predictable spacing, do not overtake aircraft ahead, and follow ATC sequencing where a controller is present.

If the preceding aircraft is still on final, extend downwind or reduce speed within the safe limits of your aircraft rather than turning base inside it. If spacing collapses after you turn final, go around. Simulator ATC, AI traffic and multiplayer pilots can behave unpredictably, so treat instructions and labels as aids rather than substitutes for an outside scan.

How can I practise traffic patterns accurately?

Repeat circuits in one forgiving aircraft, keeping the setup consistent and changing only one variable at a time.

1. Start in daylight with light wind. Learn the visual shape, power settings and workload before adding turbulence or a strong crosswind.
2. Use one aircraft and runway. A familiar trainer makes it easier to recognise how power, flap and wind alter the sight picture. Our Cessna 172 circuit and landing walkthrough provides a practical light-aircraft example with representative checks and speeds.
3. Keep the cockpit view consistent. Changing seat height, zoom or field of view moves the runway relative to the wing and windscreen, making visual turn cues unreliable.
4. Trim after every change. Persistent control pressure means the aircraft is not settled and attention is being taken away from lookout and spacing.
5. Use instruments to confirm the visual picture. Check airspeed, altitude, vertical trend and coordination, then return outside. Do not fly the entire circuit by chasing a moving-map rectangle.
6. Review the error one leg earlier. If final was unstable, inspect downwind speed and spacing, configuration timing and the base turn. Correcting the cause is more useful than practising a last-second recovery close to the runway.