Fly-a-Plane

(Designed and Patented by Victor Stanzel)

Popular Mechanics

March 1934

Airplane On Balance Beam Can Be Flown By Novice

 


Happy landings are always assured if you ride in an airplane, which actually takes off, and flies under its own power, yet cannot fall or get out of control regardless of how the novice mixes the controls. It consists of a conventional type of ship, powered with a five-horsepower electric motor, which is controlled by an operator on the ground. The plane is attached to one end of a beam, which in turn is pivoted on the top of a central stand, allowing the ship to revolve and move in a vertical plane. A hydraulic check allows only a limited movement up and down of the beam, and on the end opposite the ship the beam has stabilizing equipment in the form of a horizontal surface set at the same angle as the plane’s wings and a vertical surface or fin in the form of a tank containing sufficient water to counterbalance the weight of the ship. The horizontal surface counteracts pressure as the plane banks and the vertical fin counteracts the drag when the ship is going against the wind and retards the ship as it flies with the wind. An adjustable counterbalance, also controlled by the ground operator, helps balance the varying passenger load. By adjusting the speed of the motor in the plane or the counterbalance, the ship can be made to fly at a height of from one to twenty-five feet and takes off when it has reached a speed of about twenty miles per hour. By using controls in the cabin, the passenger can zoom and dip the ship in a businesslike manner. When the motor is throttled or cut off the plane glides to a landing. When in flight, the beam and most of the stand are hidden from the view of the flyer.

 


The Fly a Plane is one of many models that Dale Kirn has built for the Stanzel Model Aircraft Museum.

Fuselage Assembly: Body was made in two halves out of Geluton wood. The cabin area was hollowed out and a seat, control stick and dashboard were made and installed before cementing the two halves together. All parts plus the inside cabin were painted gray and black.

Main Beam Assembly: Two sides were made first. 13 yards of various sizes of brass tubing that was cut/fitted to the full size drawing. All parts were then soldered in place. These two sides were set in a jig and all of the cross bars and diagonal braces were cut/fitted and JB welded in place on 30 pieces of cross bars and diagonals were used. Total pieces of tubing made was 84 pieces!!

The finished product can be seen in the museum.