Revolutionary VTOL Physical Stability Meets Electric Precision #helicopter #drone #aviation #fpv

Añadido: 2026-05-27

[00:00:00]This is the same aerodynamic principle Custer tried to prove, but with modern electric precision, CFD optimized geometry, and active thrust balancing.

[00:00:10]The M235 runs a Q pilot class flight computer with triple redundant IMUs, vibration isolated mounting, and a 400 Hz control loop. Motor commands are distributed through a hybrid PWM Dshot architecture to maintain microsecond level thrust symmetry.

[00:00:28]A dual bus power system isolates avionics from propulsion with a 5.3 V regulated rail feeding the Q, GPS, telemetry, and rangefinder suite. Even in a full propulsion brownout, the flight computer remains online for up to 42 seconds.

[00:00:45]Most VTOLs rely on software to stay upright. The M235 uses physics.

[00:00:52]The channel geometry naturally resists roll. The thrust corridor damps oscillation, and the distributed propulsion layout provides thrust vector redundancy. The aircraft remains controllable with up to two motor failures on opposite arms.

[00:01:08]This is stability not as an algorithm, but as a physical property.