MOZA Racing, a company founded in 2012 by automotive engineers that cut its teeth on camera gimbals before becoming a heavyweight in direct-drive sim racing wheels, has been working to close that gap. With the MOZA AY210 Force Feedback Yoke Base and the companion MFY Yoke—originally launched in March 2025—the company brought active dual-servo motors, telemetry-driven control loading, and an automotive-style aluminum quick-release ecosystem to Windows 10 and Windows 11 cockpits. A detailed hands-on evaluation published by Tom's Hardware puts the bundle through demanding airliner scenarios in Microsoft Flight Simulator 2024, revealing hardware that fundamentally alters desktop flight immersion—provided you know which software setting to flip before taxiing to the runway.
Hardware Architecture and Specifications
At the heart of this setup is a modular two-piece architecture: the heavy-duty AY210 motor base and the detachable MFY Yoke grip. Like modern direct-drive racing wheelbases, the AY210 houses the motors, control electronics, and power delivery inside an aluminum-alloy chassis with a high-strength steel internal shaft mechanism, while the yoke itself attaches via an all-aluminum quick-release collar.
According to MOZA's official specifications and Tom's Hardware's testing data, the hardware breaks down into two distinct components with serious mechanical footprints:
| Specification | MOZA AY210 Force Feedback Base | MOZA MFY Yoke |
|---|---|---|
| Primary Construction | Aluminum-alloy housing, high-strength steel shaft | Composite / PA66 thermoplastic body, ABS buttons, aluminum quick release |
| Actuation & Sensors | Dual servo motors, 280 MHz processor, 15-bit magnetic encoder | 2 Hall-effect joysticks, 2 8-way switches, 2 triggers, 2 LB/RB buttons |
| Force & Motion | 9 Nm sustained roll torque, 210 N max pitch force, 150 mm pitch travel, ±90° roll | Full 180° rotation (±90° roll axis) |
| Programmable Inputs | 13 customizable front-panel switches | Up to 34 total configurable inputs |
| Connectivity & Power | Detachable USB-B to USB-A (1,000 Hz refresh), 216 W (110–220V AC to 36V DC) | Internal pass-through via quick-release collar |
| Dimensions & Weight | 9.6 × 15.9 × 4.4 in (243 × 403 × 112 mm); 17.6 lbs (8.0 kg) | 5.6 × 8.0 × 12.3 in (142.5 × 202 × 313 mm); 2.9 lbs (1.3 kg) |
| OS & Sim Support | Windows 10/11 PC (MSFS 2020/2024, X-Plane 11/12, DCS World, IL-2) | Windows 10/11 PC via MOZA Cockpit software |
| Stated MSRP | $699.99 (listed at $699 at March 2025 launch) | $129.99 in Tom's Hardware review ($149 at March 2025 launch) |
A critical practical detail for anyone planning a desk build is weight and mounting. At 17.6 pounds (8 kg) for the base alone—and generating up to 210 Newtons (roughly 47 pounds-force) of push-pull pitch resistance alongside 9 Newton-meters of sustained roll torque —this is not a peripheral that sits politely on rubber feet. MOZA supports direct hard-mounting to aluminum-profile simulator rigs as well as standard or suspended desktop clamps, though Tom's Hardware notes that the table clamps are sold separately rather than included in the standard box.
Section Summary: The AY210 base and MFY yoke bring an 8 kg aluminum chassis, dual servo motors capable of 9 Nm roll torque and 210 N pitch force, and a 15-bit magnetic encoder to Windows flight rigs, priced around the $830 mark before optional mounting clamps.
How Active Force Feedback Changes the Cockpit
Why does active force feedback matter so much in a flight simulator? In a traditional spring-loaded yoke, the physical center is permanently fixed by mechanical tension. Whether your virtual aircraft is parked at the gate with the engines off, hurtling down the runway at 140 knots, or fighting a crosswind with the trim wheel spun forward, the yoke always pulls toward the exact same physical neutral point with the exact same spring curve.
An active force-feedback base replaces passive springs with servo motors driven by real-time simulator telemetry. According to MOZA's technical documentation, its Telemetry Force Feedback system reads live data from titles like Microsoft Flight Simulator 2020, Microsoft Flight Simulator 2024, X-Plane 11/12, DCS World, and IL-2 Sturmovik—translating airspeed, altitude, G-loading, and angle of attack directly into mechanical resistance.
In Tom's Hardware's testing with the PMDG 737-800 and PMDG 777 in Microsoft Flight Simulator 2024, that telemetry translation reshaped how the aircraft felt in hand:
- Dynamic Airspeed Loading: Just as in a full-motion Boeing 737 simulator, the control column feels heavier and becomes progressively harder to deflect in both pitch and roll as airspeed builds after takeoff.
- Mechanical and Environmental Cues: The servos layer tactile vibrations on top of aerodynamic resistance, allowing pilots to feel engine rumble, the deployment of flaps and spoilers, the onset of aerodynamic buffet when approaching a climb stall, and the physical thump of the landing gear touching down on the runway.
- Autopilot Servo Tracking: When the aircraft's autopilot is engaged, the AY210 base physically moves the MFY yoke in real time to mirror the autopilot's control surface commands—eliminating the jarring mismatch that happens on conventional yokes when you disconnect autopilot during a turn or pitch transition.
Section Summary: By reading live aerodynamic telemetry from MSFS 2024, the AY210 replaces static spring tension with dynamic airspeed stiffening, stall and engine vibrations, and physical autopilot tracking.
Putting the AY210 Through Its Paces in MSFS 2024
To evaluate whether high torque figures actually translate into better flying precision, Tom's Hardware bypassed older simulators and focused on Microsoft Flight Simulator 2024 for its updated atmospheric and flight dynamics. Notably, the reviewer chose the PMDG 737-800 and PMDG 777 rather than the iFly 737 MAX, pointing out that the iFly add-on was not yet natively built for MSFS 2024 and struggled with wind and turbulence modeling in the newer sim. To match the hardware to the aircraft, testing incorporated community profiles from Flightsim.to created by Tonyaviation, a real-world 737 and 787 pilot.
The review evaluated the hardware across three specific flight regimes:
- Precision Maneuvering at 5,000 Feet: Performing gentle bank angles and small pitch adjustments to dial in exact descent rates highlighted the base's 280 MHz processor and 15-bit magnetic encoder. Small inputs translated predictably into the simulator—once a critical software adjustment was made.
- Summer Turbulence into Las Vegas: Using MSFS 2024's Live Weather during hot, gusty desert conditions subjected the aircraft to severe updrafts and downdrafts. Rather than waiting to see the nose pitch up or roll off on the primary flight display, the reviewer reported feeling the atmospheric shear immediately through the yoke column, making it much easier to anticipate and counter rough air.
- The SFO Runway 1R Curved Approach: For a high-workload test, the reviewer flew the RNAV Visual approach into San Francisco International Airport's Runway 1R. Because the Navigraph database in MSFS 2024 was missing the crucial Radius-to-Fix (RF) curved leg between the waypoints KLAUS and SQIRL, the tester manually coded the leg into the PMDG navigation database. Holding a sweeping right-hand turn down to roughly one mile from the threshold requires constant, delicate pitch and roll coordination before rolling out onto the centerline. Compared side-by-side with the popular, lower-cost Thrustmaster TCA Boeing Yoke, the MOZA AY210 proved noticeably smoother and less jerky through the arc. While the Thrustmaster sits in a much lower price bracket and isn't a direct price competitor, it serves as a familiar benchmark for how much smoother active servo control feels compared to mechanical rollers and springs.
Section Summary: Across high-altitude hand flying, desert thermals in Las Vegas, and a manually programmed curved RNAV approach into San Francisco, the AY210 demonstrated faster tactile cueing and smoother path tracking than conventional mechanical yokes.
The Out-of-Box Caveat: Fixing the "Sticky" Elevator Axis
No piece of complex PC simulation hardware is immune to setup quirks, and the most important takeaway for prospective buyers in Tom's Hardware's review involves the AY210's out-of-the-box elevator feel.
With 150 mm of physical pitch travel through the base housing, the elevator axis has to support considerable mechanical leverage. Out of the box, Tom's Hardware found that pushing and pulling the yoke along the pitch axis felt somewhat unnatural and "sticky" compared to the smooth, consistent column movement of a real commercial 737 simulator.
Fortunately, this is a tuning issue rather than a permanent mechanical flaw. For Windows users setting up the AY210—or troubleshooting why their pitch axis feels notched or overly resistant—the fix lives inside the MOZA Cockpit desktop software alongside MOZA's broader telemetry controls:
- Enable Pitch Friction Correction: Inside MOZA Cockpit, locate and enable the Pitch Friction Correction setting. Tom's Hardware reports that turning this specific compensation on significantly smoothed out the elevator travel, bringing the column response much closer to a real 737 flight deck.
- Verify Telemetry Mode vs. Standard DirectInput: In MOZA's official support documentation, the company distinguishes between Standard Force Feedback (which relies on basic DirectInput spring and vibration APIs) and Telemetry Force Feedback (which calculates dynamic aerodynamic loads). Ensure your active simulator preset is running Telemetry Force Feedback and that MOZA Cockpit is launched as Administrator if telemetry reports as disconnected.
- Dial in Baseline Airliner Parameters: If you are building a custom profile rather than importing a community file like Tonyaviation's, MOZA's official tuning guide recommends starting with 70–80% Overall Strength, 50–60% Spring/Centering, 20–30% Damping for general aviation and airliners (or 30–40% for heavier hydraulic feel), 20–30% Inertia, 10–15% Friction, and 40–50% Vibration.
- Tune in Small Increments: Because static friction settings intentionally add a slight breakaway resistance when moving from a standstill, setting general friction or damping too high can fight your fine pitch inputs on short final. Adjust sliders in 5–10% increments while in an active flight session rather than the simulator's main menu.
Section Summary: While the AY210's pitch axis can feel sticky on default settings, enabling Pitch Friction Correction in MOZA Cockpit and properly balancing damping and friction sliders resolves the issue.
Value, Competition, and Where MOZA Fits on Your Desk
At roughly $830 combined ($699.99 for the AY210 base and $129.99 to $149 for the MFY yoke, plus optional desk clamps), MOZA's flight system demands a serious commitment. You can buy well-regarded non-force-feedback yokes like the Honeycomb Alpha or Thrustmaster TCA Boeing Edition for a fraction of that cost.
However, judged within the specific realm of force-feedback aviation hardware—where legacy Swiss and boutique commercial control-loading yokes have historically cost upwards of $1,500 to $2,500—MOZA is aggressively undercutting the established market. By repurposing its mass-production servo motor expertise, 15-bit magnetic encoders, and quick-release ecosystem from sim racing, MOZA has brought active control loading down into enthusiast territory. Furthermore, because the AY210 uses a quick-release collar and puts 13 programmable switches directly on the base unit, sim pilots have a clear upgrade path if they ever want to swap yoke rims without buying a second motor base.
Is it overkill for someone who casually flies a Cessna 172 on keyboard and mouse once a month? Absolutely. Even in Tom's Hardware's positive verdict, the reviewer noted that a few individual force-feedback effects could be stronger and that software tweaking is mandatory to get the best elevator response. Yet for dedicated Microsoft Flight Simulator 2024 and X-Plane 12 pilots who spend hours hand-flying instrument approaches in complex airliners like the PMDG 737 and 777, feeling the airspeed load up on the column and watching the yoke move under autopilot command makes passive spring yokes feel like relics of a bygone era.
References
- MOZA AY210 Force Feedback Base and MFY Yoke review: Taking flight sim immersion to the next level Tom's Hardware · 2026-10-17T15:00:00+00:00
- MOZA AY210 Yoke Bundle | Professional Force Feedback Flight Control System – MOZA Racing US us.mozaracing.com
- MOZA AY210 + MFY Yoke Review 2026: Force Feedback for MSFS Airliners simracingcockpit.gg