Segmented airfoils with integrated solar panels reduce power requirements by leveraging atmospheric wind for buoyant aerial vehicle maneuverability.
A hybrid transport system uses a linear induction motor and wing-assisted lift for high-speed travel.
Actuators adjust cable tension to shift natural frequency and attenuate vibrations on unmanned aerial vehicle platforms.
A kite supports a tether line to capture an unmanned aerial vehicle, eliminating runway requirements.
Integrating a rotorcraft with a kite or balloon creates a sky mooring that extends flight duration and payload capacity beyond battery limits.
A funnel runway with lateral restriction devices guides tethered aircraft to precise ground positions using automated winch systems.
A UAV docking system uses a reel and tether to autonomously lower the aircraft onto a landing pad.
Curved upper fuselage and split wing segments provide stability and load capacity while maintaining maneuverability.
Centrifugal stiffening reduces bending moments on slender wings, enabling elliptical span loading and improved aerodynamic efficiency.
A gyroscopically stabilized platform isolates the camera from helicopter rotation to maintain image clarity during surveillance operations.
Segmentation and nesting principles reduce device complexity while the tethered flying module gains elevation for improved sensor-view perspective.
A spooling apparatus uses an exit geometry sensor to adjust filament deployment length for stable tension management.
A kite marking holder transitions between entrained and free-running states to display visible indicators along the hauling rope.
A water-propelled unmanned aerial vehicle uses remote pressurized fluid through adjustable nozzles for controlled flight.
A modular aerial vehicle system switches between battery and tether power using a motorized spooling apparatus to manage tension.
A tethered drone system uses a physical tether to provide continuous electrical power and secure data transmission.