CLIMBING AIR
What if a person could climb through the air using human energy in a different way?
Not free energy. Not a claim that the machine already works. A question worth testing.
First came the dream.
As kids, my brother Chuck and I both dreamed about gliding around our houses. We did not realize until much later in life that we had been having almost the same dream.
Years later, that childhood idea turned into drawings, mechanisms, prototypes, failed directions, new questions and one persistent obsession: can ordinary human motion be transformed into useful aerodynamic motion in a fundamentally different way?
Store it. Transform it. Release it.
A human body is not a high-power engine. But it can deliver energy over time. That raises a different engineering question: rather than requiring the body to produce peak propulsion directly, can mechanical energy be accumulated and then delivered with different velocity, force and timing?
The goal is not to multiply energy. The goal is to transform how that energy is delivered.
The whip and the stacked balls.
A whip can turn relatively slow motion at the handle into extraordinary speed near its tip. A stack of elastic balls, arranged from large to small, can concentrate collision energy into the lightest ball and launch it far above the original drop height.
Neither creates energy. Both suggest the same useful engineering theme: progressively changing effective mass and stiffness can radically change velocity and impulse.
This is now one of the central questions behind Climbing Air: can an elastic, tapered or staged mechanical system deliver human-supplied energy to an aerodynamic surface more effectively than a simple direct drive?
Draw. Build. Test. Learn.
Climbing Air documents the evolution of the idea, including approaches that do not work. The notebook matters as much as the destination.
Can pulsed propulsion outperform continuous direct input?
Human-powered flight has already been demonstrated. The open question here is narrower and different: can stored elastic energy, variable geometry or oscillatory aerodynamic surfaces make better use of limited human power in a climb, glide or repeated flight cycle?
The next stage is not another giant machine. It is measurement.
Concept → Prototype → Test → Evidence → Flight
I don't know yet.
That is the point.
Climbing Air is a public record of an engineering question in progress — the sketches, prototypes, calculations, dead ends and discoveries that come with trying to turn an unlikely idea into something measurable.
Founded by Wayne Michael Bell in Michigan.