Compare the best bush planes for flight simulators, including the XCub, Super Cub, Beaver, Turbo Otter and Caravan, with picks for every role.
Across Microsoft Flight Simulator, X-Plane, FSX and Prepar3D, the CubCrafters XCub is our best all-round bush plane wherever a well-modelled version is available. Pick the Piper Super Cub for training, Cessna 208B Caravan for cargo, or DHC-2 Beaver and DHC-3 Turbo Otter float variants for amphibious work.
That recommendation assumes a credible flight model, not merely an aircraft wearing tundra tyres. Add-on quality can matter more than type: low-speed lift, propwash, tailwheel steering, brake sensitivity, ground friction and water handling determine whether bush operations feel convincing.
Best bush planes for flight simulators by role
| Aircraft | Best use | Why it stands out | Main compromise |
|---|---|---|---|
| CubCrafters XCub | Best all-rounder | Strong short-field ability, modern cockpit options and better cross-country performance than older Cubs | Tailwheel handling and aggressive braking can catch beginners |
| Piper PA-18 Super Cub | Training and low-and-slow flying | Simple systems, excellent visibility and honest stick-and-rudder handling | Limited payload and slow cruise speed |
| Cessna 208B Grand Caravan | Cargo and longer bush routes | Large payload, tricycle undercarriage and dependable turboprop performance | Needs more space and energy management than a light STOL aircraft |
| DHC-2 Beaver | Classic bush and float operations | Available in wheel, float and amphibious configurations, depending on the package | Radial-engine, tailwheel and float handling create a higher workload |
| DHC-3 Turbo Otter | Heavy amphibious utility work | Combines useful payload with access to remote strips and waterways | Its greater mass makes approach planning and stopping distance more critical |
| Zenith STOL CH 701 | Very small landing areas | Extremely low operating speeds and excellent cockpit visibility | Slow en route, while flight-model quality varies between add-ons |
| Pilatus PC-6 Porter | Mountain strips and utility flying | Powerful turboprop performance, steep-approach capability and practical payload | Requires disciplined power, propeller and directional control |
Which bush plane should I choose for my simulator?
Microsoft Flight Simulator 2024 and 2020
In Microsoft Flight Simulator 2024, the XCub suits small strips while the Cessna 208B Grand Caravan EX is the better choice when payload and range matter. Our detailed comparison of general aviation choices in MSFS 2024 explains where each aircraft fits.
The same broad choice applies in Microsoft Flight Simulator 2020: use the XCub for light STOL flying, a Beaver variant for classic bush work and the Caravan for cargo. See our MSFS 2020 aircraft comparison for the strengths of the included models. Availability can depend on the installed edition, updates and optional content.
X-Plane 12
X-Plane 12's included Piper PA-18 Super Cub is an excellent starting point because it exposes poor rudder control, excess approach speed and bad tailwheel technique rather than hiding them behind complex systems. Do not assume an aircraft built for an earlier X-Plane generation is fully compatible; flight-model tuning, avionics, sounds or plugins may require an updated package.
FSX and Prepar3D
FSX and Prepar3D have extensive freeware fleets. The free Zenith STOL CH 701 package for FSX and Prepar3D is suited to tiny grass strips, while this DHC-3 Turbo Otter amphibian package for FSX covers heavier land-and-water operations.
An FSX-labelled aircraft is not automatically compatible with every Prepar3D generation. Read the file notes before installing, particularly where the cockpit uses legacy gauges or platform-specific effects.
What makes a good simulated bush plane?
A good bush aircraft must remain believable near the stall and on the ground, where simulator limitations are most obvious. We judge bush planes using these factors:
- Low-speed behaviour: The stall should develop progressively, with believable control authority, slips and propwash effects.
- Ground handling: Tailwheel steering, tyre friction and differential braking should allow precise control without making ground loops impossible or unavoidable.
- Useful load: Fuel, passengers and cargo should produce noticeable changes in take-off distance, climb and centre of gravity.
- Visibility: A clear view of the strip matters during steep approaches, turns around obstacles and tailwheel taxiing.
- Undercarriage options: Tundra tyres, floats, amphibious floats or skis should alter handling rather than act as visual accessories.
- Documentation: The package should provide usable speeds, flap limits and operating guidance for that particular simulation model.
A mistake we see constantly is comparing take-off distances with minimum fuel, no payload and a strong headwind. Test competing aircraft at the same weight, wind, elevation, temperature and surface; otherwise the result says little about their relative STOL performance.
How do I land a bush plane on a short strip?
A realistic short-field landing comes from weight control, a stable approach and disciplined braking—not from flying as slowly as the simulator permits.
- Set a realistic weight. Load the fuel and cargo required for the route, then check that the centre of gravity remains within limits.
- Use the correct data. Follow the speeds and flap limitations supplied for that aircraft package. Numbers from a different engine, wing or undercarriage variant may not apply.
- Inspect the strip. Consider wind, slope, obstacles, surface and the point beyond which a safe go-around is no longer practical.
- Stabilise early. Hold the recommended approach speed and configuration instead of dragging the aircraft in below a safe margin with excessive power.
- Choose the right touchdown. Use a three-point or wheel landing according to the aircraft guidance, wind and surface. One technique is not automatically shortest or safest in every taildragger.
- Brake progressively. Maintain directional control, keep the controls positioned for the wind and avoid applying maximum braking while the tail is light.
- Go around early. Reject an unstable approach before obstacles or terrain remove that option.
Why does my bush plane ground loop or nose over?
Taildraggers ground loop because the centre of gravity sits behind the main wheels, so an uncorrected yaw tends to increase. A nose-over usually follows excessive braking, forward control input, rough ground or a combination of all three.
- Remove duplicate rudder, tiller and brake assignments; a twist grip and pedals should not both send conflicting rudder commands.
- Check that each toe-brake axis moves independently and in the correct direction. Reversed brake axes are a common cause of uncontrollable turns.
- Add only enough dead zone to eliminate hardware noise. A large dead zone delays the small corrections a taildragger needs.
- Use small, early rudder inputs rather than waiting for a large swing. Lock or centre the tailwheel when the simulated aircraft provides that facility.
- Hold the control column aft after the tail settles, then increase braking gradually while remaining ready to release the brake causing a swing.
Simulator ground physics are often less consistent than the airborne flight model. If one aircraft behaves badly, test another taildragger in the same conditions before assuming the controller or your technique is solely responsible.
Should I use tundra wheels, floats or skis?
- Tundra wheels are the best general choice for grass, gravel and rough strips. Large tyres help with uneven surfaces but do not cancel crosswind limits or poor braking technique.
- Floats open lakes and rivers but add drag, weight and wind sensitivity. Water rudders are for low-speed taxiing and should normally be retracted before take-off and landing.
- Amphibious floats offer the most flexibility, but gear position becomes critical: gear up for water and down for land. A gear-down water landing can overturn an aircraft when the simulation models float drag properly.
- Skis make sense only when both the aircraft and simulator model snow-surface interaction. A visible ski model does not guarantee realistic snow drag or steering.