Taking off and landing—different. Climbing, cruising, descending—not different.
Flying a tailwheel plane is no different...
I forgot to mention in the video is that the Cessna 170 needs to lead every turn with rudder, because of adverse yaw, which does not happen in the 182 or CJ6 I fly.
Not completely true in all instances. If the nosewheel is a typical Cessna or Piper and the tailwheel is typical rag & tube you'll keep learning about the need to pay attention to the rudder even in flight.
That is due to the design of the aircraft, not the type of landing gear. Do Pacers fly differently than Tripacers? C-150s vs. C-150s converted to tailwheel? I don't think so.
Bingo! It's the same in spades with my Husky. You don't even think about starting a roll without getting on the rudder, or the nose is heading the wrong way immediately (and rapidly).
Except there are some taildraggers where that isn't as appropriate as others.The only significant difference is pushing the stick forward to get the tail flying first on take off. Other than that, it's just a matter of remembering that you actually have to use the rudder.
The only significant difference is pushing the stick forward to get the tail flying first on take off. Other than that, it's just a matter of remembering that you actually have to use the rudder.
Paying your insurance bill is a bit different.
You fly a taildragger that doesn’t lift the tail itself on the takeoff roll?
I just crossed 100, I sure hope so.The [insurance] difference is minimal once you have 100 hours of tailwheel time. In the case of a Vans RV it’s about 100 a year extra for the tailwheel versions.
...Climbing, cruising, descending—not different.
That may or may not be true depending on what you've flown in the past and what particular tailwheel plane you're flying now. If you occasionally stab blindly at the correct rudder pedal while turning in a 172 you will likely be able to keep it more or less coordinated in a turn. But there are many older tailwheel planes that are not nearly as forgiving in this respect.Flying a tailwheel plane is no different....
The difference is minimal once you have 100 hours of tailwheel time. In the case of a Vans RV it’s about 100 a year extra for the tailwheel versions.
You fly a taildragger that doesn’t lift the tail itself on the takeoff roll?
And the glares of envy from the taildragger-deprived...Main difference is your swagger walking to and from the ramp.
No puzzle at all. One of the Seven Learning Factors is Primacy, which says this:I'm puzzled why today, one needs 15 hrs with a CFI. When I soloed, students were routinely soloed in six to ten hours in Cubs, Champs, Cessnas & Luscombes. It is totally learnable for average people.
Not misrigged. The tailspring pack was bent. It gets that way from being whacked down on the runway. When it loses its curvature, the tailwheel pivot axis gets tipped forward, an absolutely certain way to get tailwheel shimmy. And a real good way to get a broken tailpost if it's allowed to continue. Been there, done that. Repair isn't cheap.Looking back, I feel like the tail wheel was mis-rigged and would shimmy like the dickens...I just couldn't get used to it.
I never taught "pinning the tailwheel" other than after landing in a crosswind. Holding it down hard not only spins that tiny wheel up to awesome speeds, it wears the tire and it can flatten the tailspring pack so the wheel wants to shimmy all the time. Even if the pack is brand-new you can induce shimmy by putting a lot of aerodynamic load on the wheel and flattening the springs.Its been my experience that you keep the tailwheel pinned to the deck with full aft stick until you reach the speed at which the tail will fly. Then, its a positive movement to push the stick forward and make the tail fly. Thats the way I was taught, and the way I've always done it, whether its a Citabria, a Cessna 140, or a Pitts.
Its been my experience that you keep the tailwheel pinned to the deck with full aft stick until you reach the speed at which the tail will fly. Then, its a positive movement to push the stick forward and make the tail fly. Thats the way I was taught, and the way I've always done it, whether its a Citabria, a Cessna 140, or a Pitts.
Watching the youtube 'expert' tailwheel pilots I could swear the proper technique is to lift the tail as high as possible as soon as possible and then slam it down to the ground hard as you force the mains in the air.There is no need to hold the tailwheel down with full aft controls on most tail wheels. I personally can’t think of any where that is necessary.
For most tailwheels, holding the stick neutral (obviously applying aileron for x-wind as necessary) works best. Some airplanes will naturally fly off right from the three point attitude and others the tail will lift off first and then the airplane will fly off when ready.
Actually, trim it correctly, and allow it to fly away.Watching the youtube 'expert' tailwheel pilots I could swear the proper technique is to lift the tail as high as possible as soon as possible and then slam it down to the ground hard as you force the mains in the air.
Taking off and landing—different. Climbing, cruising, descending—not different.
The thing with taildraggers is that landing options are many compared to a trike. You can raise the tail high soon after rolling to get better visibility and to get better traction on the mains in a crosswind takeoff. You can take off with the tail really low to get better STOL or soft-field performance. You can land three-point, or do a tail-low wheel landing (lower airspeed) or a tail-high wheel landing (higher airspeed) for various crosswinds. You can raise the tail after touchdown to kill the lift and get better traction for braking, but you'd better know what you're doing there if you don't want a noseover.
A taildragger pilot knows what a lot of trike pilots don't seem to know: the flight isn't over just because the wheels are on the ground.
Taildraggers will lift their tailwheel off the ground before liftoff if the elevator is left slack. If they don't the airplane is loaded well beyond the aft CG limit. The center of lift is aft of the main wheels and the CG, meaning that as lift increases with airspeed the tail will come up. Simple geometry.