Concave rear fairing geometry eliminates stagnation points at the hinge junction, reducing lift loss and drag on folding wing tips.
Autonomously detects damage and calculates operational loads to adapt structure geometry, eliminating manual inspection delays.
Trailing tip tails in the upwash field relieve torsional loads, reducing mainplane mass while enhancing lift and thrust.
A piston housed in an airfoil structure moves a vortex generator between stowed and deployed positions using aerodynamic pressure differentials.
Bell-shaped fairing blends into the wing leading edge to cover the hinge mechanism, reducing lift loss and drag from aerodynamic discontinuities.
A winglet connection structure uses shearing pins and bushings to establish a natural positioning datum for precise assembly.
A curved aircraft winglet design reduces induced drag through optimized radius transitions.
A vortex generator vane creates counteracting vortices to reduce drag on an upswept aircraft fuselage afterbody.
Segmented winglets with distinct dihedral angles manage tip vortices to minimize drag while preserving the lifting effect.
A retractable aerofoil device on wing edges decomposes strong tip vortices into smaller bundles to reduce induced drag.
Segmented lifting function and dynamic tilt wings resolve fuel consumption trade-offs while improving vertical take-off safety.
Sensors detect conditions for contrail formation while a controller adjusts the air-to-water mass flow ratio to suppress trails without adding weight.
Movable bullnose protuberances adapt airflow patterns to boost lift at low speeds while retracting to minimize cruise drag and noise.