How do I adjust MSFS controller and joystick sensitivity?
Find MSFS 2020 and 2024 joystick, yoke and gamepad sensitivity settings, then tune axes, dead zones and response curves step by step.
To adjust controller or joystick sensitivity in Microsoft Flight Simulator, open Controls, select the physical device and active profile, then open Sensitivity or Hardware Settings. Tune each analogue axis separately: soften the centre response, use only enough dead zone to stop drift, verify full travel, save the profile and test in flight.
Where are the sensitivity settings in MSFS 2020 and 2024?
In both simulator generations, sensitivity is edited for the selected physical device and profile rather than through one global setting.
| Simulator | Menu | What to select |
|---|---|---|
| Microsoft Flight Simulator 2020 | Options > Controls Options, then Sensitivity | Your gamepad, joystick, yoke, pedals or throttle and its active profile |
| Microsoft Flight Simulator 2024 | Settings > Controls, then the device's sensitivity or hardware settings | The physical device and profile containing the axis to be adjusted |
Labels, button prompts and placement can vary by device and platform. Our walkthrough of the revised MSFS 2024 controls menus provides more detail for that version.
How do I tune an MSFS response curve accurately?
The reliable method is to establish a clean baseline, change one setting at a time and check the input graph before judging the aircraft.
- Create or duplicate a profile. Preserve the default preset so that you can return to a known baseline.
- Confirm the device and axis. Move the control while watching the input indicator. Pitch, roll and rudder must use analogue axis assignments; commands such as Aileron Left or Elevator Up are digital and cannot be made analogue with a curve.
- Start linear. Set sensitivity to zero or a straight-line response, leave Neutral and Reactivity at their defaults, and remove unnecessary dead zones.
- Check the centre. Release the control and watch the marker. Add dead zone in small steps only if it jitters or rests off-centre.
- Check full travel. Move slowly to both stops. The graph should move smoothly and reach its full range without spikes; use Extremity Dead Zone only to correct a genuine endpoint mismatch.
- Soften the centre response. Apply equal negative sensitivity to both halves of a centred axis, then adjust in small increments. Pitch, roll, rudder and throttle rarely need identical curves.
- Adjust Reactivity last. Lower values can smooth abrupt thumbstick movement, but excessive filtering creates control lag. Joysticks and yokes normally benefit from a prompt response.
- Test under repeatable conditions. Use the same familiar aircraft, loading and airspeed in calm weather, with autopilot disengaged. Save or apply the profile if the menu presents that option.
If an axis is missing, assigned twice or bound to button commands, correct the controls first. Our MSFS 2020 analogue-axis and profile setup covers the binding process and sensible initial values.
What does each sensitivity control do?
These settings reshape hardware input; they do not alter the aircraft's aerodynamics.
| Setting | Effect | Common mistake |
|---|---|---|
| Sensitivity or response curve | Changes how much virtual movement results from different parts of the physical travel | Expecting a normal centre-softening curve to remove maximum control authority |
| Dead Zone | Ignores a small area around the centre | Using a large value to hide poor calibration, causing a jump when control begins |
| Neutral | Moves the software neutral reference | Using it to compensate for a badly centred device instead of calibrating the hardware |
| Extremity Dead Zone | Changes where full virtual output is reached near the physical endpoint | Reducing useful travel when the axis already reaches its endpoints |
| Reactivity | Controls how quickly simulated input follows physical input | Setting it too low and introducing noticeable delay |
What are good starting settings for a gamepad or joystick?
The right curve depends on physical travel, spring strength, sensor condition and aircraft type. These MSFS 2020-style percentages are starting ranges rather than required values.
- Gamepad: use a modestly softened pitch-and-roll curve, the smallest dead zone that stops thumbstick drift, and reduced Reactivity only if finger movements remain abrupt. See our baseline Xbox and PC gamepad settings for practical values.
- Short desktop joystick: try -20% to -40% pitch and roll sensitivity.
- Yoke or extended joystick: begin between 0% and -20%; the longer physical travel already provides finer control.
- Twist rudder: try -30% to -50%. Dedicated pedals usually require less curve.
- Throttle: start linear with no dead zone. When an aircraft provides its own throttle or detent calibration, configure detents there instead of stacking another curve in MSFS.
If your simulator uses a graph or a different scale, reproduce the intended shape rather than copying the number: shallow around the centre, smooth through the travel and capable of reaching both endpoints.
Will a negative sensitivity curve reduce full control travel?
A normal negative sensitivity curve softens movement near the centre without removing full control authority, provided the input graph still reaches both endpoints. If it does not, inspect the extremity setting and hardware calibration rather than making the centre more sensitive to disguise the problem.
Why do sensitivity changes have no effect, or the control still drifts?
Wrong profiles, duplicate bindings and hardware faults cause most cases where an MSFS curve appears ineffective.
- The wrong profile or device is active: settings are stored separately for each connected controller and profile.
- The input uses digital commands: replace directional bindings with the corresponding pitch, roll or rudder axis.
- Another device has the same binding: a gamepad, pedals, throttle or unused joystick can fight the intended input.
- A hardware utility also applies a curve: two layers of correction can produce an unexpectedly aggressive or flat response. Troubleshoot with one curve layer.
- The graph moves with the control untouched: this indicates centre noise, calibration trouble or a worn sensor rather than an aerodynamic issue.
- The graph is stable but the aircraft turns: check trim, wind, fuel imbalance, propeller effects, assistance settings and autopilot state.
- Control begins with a jump: reduce the dead zone; a large ignored centre sacrifices precision.
- Input feels delayed: restore Reactivity towards its default and check for assistance or aircraft-specific smoothing.
- The aircraft uses fly-by-wire logic: its control laws may reshape or limit input, so compare the curve in a simple general-aviation aircraft before assuming it failed.
A curve cannot repair a control that reports the wrong centre, severe spikes or incomplete travel. Follow our guide to calibrating a joystick and checking its axis range, then return to MSFS for fine adjustment. Dead zone is suitable for slight centre jitter, not a substantial hardware offset.
Should every aircraft use the same sensitivity curve?
No. Separate profiles are useful when moving between a short-stick airliner, a conventional general-aviation aircraft and a helicopter, but sensitivity should primarily compensate for the physical controller rather than erase realistic differences between aircraft.
Fly-by-wire aircraft and add-ons with an in-cockpit calibration page may expect linear simulator input. Start with a linear MSFS curve when the aircraft supplies its own calibration, especially for throttle detents, and avoid applying two correction layers to the same axis.