How do I perform aerobatics in a flight simulator?

To perform aerobatics in a flight simulator, use an aerobatic-rated aircraft, calibrated stick and rudder controls, realistic assistance settings, calm weather and generous altitude. Enter each figure at the aircraft’s documented speed, keep a visual reference, coordinate the controls, manage energy, and abandon the manoeuvre early when the entry or orientation is wrong.

This is general guidance for Microsoft Flight Simulator 2024 and 2020, X-Plane, FSX and Prepar3D. Setting names vary, and credible normal handling does not guarantee that a simulator or add-on accurately models spins, tailslides, snap rolls and other post-stall behaviour.

A desktop simulator cannot reproduce sustained g-load, changing stick forces or the physical cues that warn a real pilot about a developing stall. It is useful for learning procedures, sight pictures, control coordination and sequence planning, but it does not replace qualified real-world aerobatic instruction.

Choose an aircraft designed for aerobatics

Use a purpose-built aerobatic trainer while learning because it will have the control authority, power and predictable handling required for basic figures.

A mistake we see constantly is choosing an aeroplane merely because the simulator allows it to fly inverted. Check the supplied manual, placards or flying notes for permitted manoeuvres, entry speeds, loading limits and maximum g. If the developer provides no aerobatic guidance, do not assume that spins or advanced figures were modelled deliberately.

FSX users can begin with a gentler aerobatic trainer for learning precision figures. Once the fundamentals are repeatable, a high-performance aerobatic aircraft for vertical and freestyle practice provides a more demanding step up.

Set up the simulator and controls

A useful aerobatic setup removes unwanted control interference without hiding the aerodynamic effects being practised.

1. Use an analogue controller. A joystick or centre stick is best; a twist grip or rudder pedals provide proportional yaw control. A gamepad is workable with careful sensitivity settings, but keyboard taps are too coarse for precise figures.
2. Calibrate every axis. Centre the controls, confirm full travel and remove duplicate assignments. Use only enough dead zone to stop actual jitter, then add a modest response curve if the aircraft is excessively sensitive near the centre.
3. Check the control display. A spiking axis, permanently applied brake or second device bound to the same surface can look like bad aerodynamics. Move each control through its full range before take-off.
4. Disable piloting assists. Turn off simulator features such as auto-rudder, automatic trim, assisted control and artificial stall prevention where present. Do not confuse these with genuine aircraft systems; if a fly-by-wire aeroplane prevents the required manoeuvre, choose a proper aerobatic type instead.
5. Set calm, clear weather. Learn the normal sight picture without turbulence or crosswind first. Add wind later when practising display-line positioning and drift correction.
6. Load the aircraft correctly. Keep its weight and centre of gravity inside the documented aerobatic envelope. Fuel quantity and centre of gravity can materially change pitch response, vertical performance and spin behaviour.
7. Climb into clear airspace. Allow enough height for the figure, a failed attempt and a deliberate recovery. A split-S or botched vertical manoeuvre can consume altitude very quickly.
8. Stabilise before entry. Trim for straight-and-level flight, choose a road, runway, coastline or heading as the manoeuvre axis, and establish the specified speed before moving the controls.

Learn from the cockpit rather than chasing the aircraft with an external camera. The nose, wingtips and horizon provide the useful cues; external views and replays are better for checking the completed shape. Stable frame timing also matters because stutters make rapid control inputs difficult to judge.

How do you fly basic aerobatic manoeuvres?

Fly every basic figure from a planned entry condition, control its shape with outside visual references, and finish on a known heading rather than improvising once the aircraft starts moving.

The central skill is energy management: trading airspeed for altitude and then recovering it without stalling or exceeding the aircraft’s limits. Because you cannot feel g building at a desk, use the sight picture, airspeed and g meter where fitted instead of responding by pulling harder.

1. Clear the area. Confirm that the flight path is free of terrain, cloud and traffic, including the vertical space above and below.
2. Establish the entry. Set the documented speed and power with the wings level on a fixed reference line.
3. Start positively but smoothly. Abrupt full-deflection inputs create drag, over-control and unnecessary departures.
4. Adjust as speed changes. Control effectiveness and the required pressure will not remain constant throughout a loop or vertical figure.
5. Finish deliberately. Stop the rotation or pull on the intended heading, then check altitude, speed and aircraft condition before attempting another figure.

There is no universal aerobatic entry speed. Use the figure and weight-specific value supplied for that aircraft; copying a number from a different model can leave you short of energy or above a structural limit. FSX pilots learning their first loop can use our downloadable loop lesson covering entry, control and recovery.

Why do my loops stall or become egg-shaped?

Loops usually stall or become egg-shaped because the entry is too slow, the first pull is too abrupt, or the same elevator pressure is held despite large changes in airspeed.

Begin straight and balanced, then build the pull progressively. Ease some back-pressure near the top so the wing is not forced into a high-angle-of-attack stall as the aeroplane slows. Increase pressure smoothly on the descending side, but avoid tightening the final quarter into a sharp, high-g recovery.

If the loop falls sideways, verify that the wings were level at entry and use small rudder corrections to keep the nose on the reference line. Large aileron inputs near the slowest part of the loop can deepen a wing drop.

Why does my aileron roll turn into a barrel roll?

An intended aileron roll becomes barrel-shaped when excessive elevator pressure makes the nose describe a circle around the original flight path.

Set a modest nose-high attitude before starting, then reduce the back-pressure and let the aircraft rotate mainly around its longitudinal axis. Neutralise the aileron, or use the small stopping input required by that model, as the wings approach level. A true slow roll is a separate figure requiring continuous elevator and rudder corrections throughout.

Why does my hammerhead arc over or slide backwards?

A hammerhead arcs over when rudder is applied too early and tailslides when the pivot is delayed until forward airflow has largely disappeared.

First make the up-line genuinely vertical; otherwise the aircraft will naturally fall towards the canopy or belly. Do not rely solely on indicated airspeed near the pivot because indications can lag and propeller airflow may preserve control authority. Use the aircraft’s documented cue and visual rate of deceleration.

If a tailslide develops, avoid random full-control inputs. Backwards airflow can reverse loads on the control surfaces, and many simulators model this condition poorly, so use the add-on’s stated recovery procedure.

Can every flight simulator model spins properly?

No; a believable spin requires both a capable simulator flight model and an aircraft configured for stalled, yawed and autorotating flight.

Some simulated aircraft refuse to enter a spin, recover as soon as the controls are released or settle into an unrealistic flat rotation. Auto-rudder and handling assists may also suppress the stall break. These behaviours can be flight-model limitations rather than pilot error.

Use the aeroplane’s published recovery because the familiar PARE method is common but not universal. Our simulator spin-recognition and recovery guide explains the sequence, how to identify the direction of rotation and how to avoid confusing a spin with a spiral dive.

Snap rolls deliberately combine an accelerated stall with autorotation; they are not simply fast aileron rolls. Leave them until spin recognition and recovery are dependable in the chosen aircraft and simulator.

What should you do if you become disorientated?

If the aircraft is not spinning, reduce the angle of attack, determine which way is up, roll towards wings level and only then recover the pitch attitude smoothly.

1. Stop pulling. Continuing to apply back-pressure while inverted or steeply banked can tighten the upset or accelerate a dive.
2. Identify the condition. Decide whether the wing is stalled and rotating, or whether the aircraft is simply banked and nose-low.
3. Confirm the attitude. Use the visible horizon and a reliable attitude indicator. Some simulated mechanical gyros may tumble during extreme attitudes.
4. Roll towards upright. Use controlled inputs and avoid a large pull until most of the bank has been removed.
5. Manage speed and power. Reduce power in a fast nose-low recovery; add it only when the aircraft’s procedure and energy state call for it.
6. Recover progressively. Raise the nose without causing a secondary stall or excessive g-load, then return to stable straight-and-level flight.

If the aeroplane still misbehaves after recovery, inspect trim, controller spikes, duplicate bindings and assistance settings before trying again. Repeatedly fighting a faulty control assignment teaches the wrong control response.

Should you practise a complete aerobatic routine immediately?

No; learn one figure at a time and link manoeuvres only after their entries, shapes and exits are repeatable.

1. Start with steep turns and wingovers. These develop coordination, horizon awareness and energy judgement without sustained inverted flight.
2. Add loops. Aim for a straight entry, round shape and level exit on the original heading.
3. Add basic aileron rolls. Practise setting the initial attitude and stopping accurately rather than chasing a high roll rate.
4. Introduce reversing and vertical figures. Immelmanns, split-S manoeuvres and hammerheads demand better altitude and speed planning.
5. Leave spins, snap rolls and linked sequences until last. Use them only with a credible flight model and a recovery procedure you understand.

Review each attempt by checking the entry condition, manoeuvre shape, exit heading, altitude and speed. Correct one recurring fault at a time. A sequence becomes consistent only when every figure finishes in the condition required to begin the next one.