A retractable delivery shroud channels payload descent and reflects acoustic waves from an aerial vehicle.
Optimizes flight costs by computing vertical trajectories with precise altitude changes, resolving inefficiencies from unrelated geographic waypoints.
A corrugated track container uses elastic deformation to accommodate ice, eliminating heavy drainage systems and reducing aircraft weight.
Chordwise trailing flap movement into a flow body recess eliminates gaps, increasing lift coefficient while reducing mechanical complexity.
An additional support device anchors the high lift body to restrict spanwise movement and deformation under air loads.
Dynamic force sharing between two actuators reduces wear and weight while maintaining reliability.
A dual-member seal assembly uses resilient layers and dampers to maintain smooth transitions between fixed airfoils and movable control surfaces.
A mapping engine identifies open areas for aerial vehicles by comparing digital surface and bare-earth models.
Segmented movable panels reduce high-to-low pressure leakage flow through wing apertures while accommodating slat track movement.
A control system adjusts rudder deflection limits based on flight parameters to enhance steering authority.
Segmented aircraft support stays maintain failsafe operation by isolating load paths, reducing device complexity and space requirements.
Segmenting the flap into a main and auxiliary element increases lift for heavy aircraft while maintaining a simple single-slot structure.
Positioning slat air outlets at the lower end directs exhaust flow into the boundary layer, preventing hot air impingement on the fixed leading edge.
A leading edge flap apparatus uses a specific motion path to minimize drag during deployment.
Capacitive sensors detect human touch on UAV surfaces to stop propellers, replacing heavy guards and improving airflow efficiency.
Bell cranks mounted on the fuselage actuate ailerons via cables, bypassing wing pivot points to reduce moving mass and complexity.