Find the best force-feedback yoke for PC flight simulation, with Brunner, MOZA and CLS-60 picks plus compatibility and buying checks.
For most serious PC flight-sim users, the Brunner CLS-E NG is the best force-feedback yoke because its mature control software, configurable loading and simulator integration matter more than headline motor strength. The MOZA AY210 and CLS-60 are better choices when stronger active forces take priority over a longer-established software ecosystem.
Which force-feedback yoke should you buy?
We recommend the Brunner CLS-E NG as the safest all-round choice for a desktop or compact cockpit where software maturity and predictable trim behaviour matter. It provides active pitch and roll loading rather than relying on springs, bungees or friction dampers.
| Yoke | Best for | Main advantage | Main drawback |
|---|---|---|---|
| Brunner CLS-E NG | Best established desktop choice | Mature CLS2Sim software, configurable control loading and broad simulator integration | Premium cost and less raw force than larger high-output systems |
| MOZA AY210 | High-force desktop or cockpit installations | Strong active pitch and roll loading within an integrated control ecosystem | Aircraft-profile quality matters, and the mounting requirements are substantial |
| CLS-60 | Enthusiasts prioritising force headroom | High-force design with considerable scope for configuring control feel | Less appliance-like than Brunner; confirm plug-in and aircraft support before buying |
| Brunner CLS-P NG | Fixed training cockpits | Heavier-duty professional control loading and integration | Its installation demands and cost are difficult to justify on a normal desk |
The key choice is software maturity versus force headroom. The CLS-E NG is our default recommendation for general aviation and transport flying, while the AY210 or CLS-60 makes more sense when you need stronger sustained loading. Maximum force alone does not produce a convincing Cessna or airliner feel; stable trim transitions are far more useful than aggressive centring.
What makes one force-feedback yoke better than another?
The best yoke reproduces trim, airspeed-dependent loading and autopilot movement correctly for the aircraft you fly.
- Aircraft-level integration: A generic spring effect that becomes stronger with airspeed is not the same as moving the neutral point when the aircraft is trimmed. Check how the software handles electric trim, manual trim and autopilot back-driving.
- Continuous force: Peak-force figures can be misleading. A yoke must hold useful force without overheating, clipping or abruptly reducing output during a long approach.
- Pitch travel and roll geometry: Restricted travel makes precise rotation and flare inputs harder, regardless of motor strength. Confirm that the mechanism suits the aircraft and available cockpit space.
- Software and profiles: Control-loading software is part of the product. Without a maintained plug-in and a suitable aircraft profile, an expensive active yoke can behave like a basic centring controller.
- Mounting and safety: High-output yokes need a rigid desk or cockpit frame. Configurable force limits, a dependable power cut-off and accessible release controls become increasingly important as motor strength rises.
Do not confuse force feedback with adjustable resistance. A passive yoke may use springs, cams, bungees or dampers, but it cannot move its centre position with trim or drive the controls under autopilot command.
Do force-feedback yokes work with MSFS and X-Plane?
The practical platform for these force-feedback yokes is a Windows PC running a supported simulator and companion control-loading software.
Microsoft Flight Simulator 2020 and 2024, X-Plane and Prepar3D can all be supported, but active forces often come from telemetry interpreted by the yoke’s software rather than from an ordinary controller binding. Confirm the exact simulator version and aircraft profile—not merely that the USB axes appear in Windows.
Support for a stock general-aviation aircraft does not guarantee correct trim or autopilot behaviour in every complex add-on. Treat Xbox Series X|S and PlayStation 5 as unsupported unless the manufacturer explicitly lists that console and simulator combination; our Microsoft Flight Simulator controller compatibility guide explains the platform checks to make before purchase.
How do you avoid common force-feedback setup problems?
Most oscillation, trim and autopilot faults come from conflicting bindings or two programs trying to control the yoke simultaneously.
- Remove duplicate axes. Bind pitch and roll to the force-feedback yoke once, then clear unnoticed assignments on throttles, pedals and other controllers.
- Use one force engine. Do not run overlapping control-loading utilities or plug-ins unless the manufacturer specifically requires them to work together.
- Start with light, linear settings. Verify full travel and direction before increasing motor force or adding response curves.
- Test trim before the autopilot. The physical neutral point should move in the correct direction as trim changes, without buzzing or fighting the commanded position.
- Secure the mounting. Desk flex can feel like control lag and may cause oscillation. Test stronger profiles only after the frame and clamps are rigid.
Do you still need rudder pedals and a throttle?
Yes: a force-feedback yoke controls pitch and roll, but it does not provide the yaw axis needed for taxiing, crosswind correction or coordinated flight.
Some desktop controllers can supply twist or rocker-based yaw, but that undermines the realism gained from an active yoke. Our explanation of why pedals are still needed for coordinated yaw control covers the practical alternatives. A separate throttle is also required unless another controller already provides usable power and propeller controls.
Is a force-feedback yoke worth the premium?
Force feedback is most valuable when you regularly fly trim-dependent general-aviation aircraft, turboprops or conventional airliners and want control forces to change with the aircraft state.
It has less value for aircraft controlled primarily through a sidestick, or when your chosen simulator and add-on cannot supply dependable telemetry. Our cost-and-benefit assessment of force-feedback yokes examines that decision in detail.
If software support for your aircraft is uncertain, a high-quality passive controller may be the better purchase; compare the alternatives in our guide to realistic passive and active yokes. Otherwise, choose the Brunner CLS-E NG for the most established overall package, and consider the MOZA AY210 or CLS-60 when higher active force is the overriding requirement.