This invention discloses a human-powered
flywheel hybrid propulsion
system and aircraft, belonging to the field of human-powered aircraft technology. The
system includes: a human input mechanism receiving the user's pulling force; a
flywheel energy storage and speed-up mechanism connected to this mechanism via a traction
rope, which incorporates a
flywheel body and a one-way
clutch to achieve unidirectional
kinetic energy transmission; a power synthesis and transmission mechanism connected to the output end of the flywheel mechanism, which synthesizes and outputs the flywheel's power; and a
propeller connected to the power mechanism. The human input mechanism employs an alternating left-right pulling design, simulating the movement of pulling a
rope to save effort. The flywheel is made of carbon
fiber and can be quickly charged with a hydraulic starting device. A differential gearbox is preferred as the power synthesis mechanism. This propulsion
system is suitable for aircraft such as fixed-wing gliders, which feature a high monoplane configuration, a high
aspect ratio wing, and a lightweight carbon
fiber structure, with strict
weight control to adapt to the power requirements of different flight phases.