Voice commands replace two-handed ascent aid control, helping paraglider pilots manage thrust hands-free during takeoff with lower safety risk.
Battery-powered wings and AI-controlled motion enable quieter personal flight while reducing setup complexity and skill demands.
This case pairs a detachable harness with AI-controlled, rotatable wings to address noise, control complexity, and flight safety.
A segmented frame tilts grouped lift devices while a flight computer coordinates thrust for more maneuverable, safer rotorcraft flight.
Spherical bearings allow lateral and vertical swing arm motion, resolving fixed pivot limitations in paramotor design.
Motor-driven threaded shaft extends outer and inner supports into a wing-like configuration, providing controlled descent stability during rotor failure.
Wing attitude sensors feed inertial data to an autopilot that adjusts rigging actuators for synchronized inflation.
A detachable wing construction enables rapid assembly of ultra-light flying devices through quick-release locking mechanisms.
Segmenting the lower sail reduces material usage while profile rib openings enable transverse airflow for improved flight stability.
A paraglider power latching unit enables rapid battery swapping via a mechanical quick-release mechanism.
Actuable billows alter wing shape while coaxial propellers adjust speed to manage center of mass, enabling reliable recovery from spiral dives.