Dual joysticks map continuous displacement to power drive units, enabling precise multi-directional cargo manipulation within partitioned holds.
Removable floor elements resolve the contradiction between container support and bulk space, maintaining gas-tight seals during configuration changes.
Coded infrared light signals from remote handsets activate power drive units through a wired network, eliminating local control panels.
A rotary door system translates inward before rotating to maintain flush alignment with the aircraft mold line.
Segmented stop device prevents free rolling of unit loads by engaging edges, avoiding complex integrated pop-up lock mechanisms.
A drone floor uses a dynamic support surface to move articles through the containment area.
Motor-driven latch coupling shaft engages unit load devices via torque transmitting pin, reducing manual labor and operational time.
Dual boom-mounted rotors enable vertical takeoff and efficient cruise by minimizing drag, resolving weight and complexity trade-offs in VTOL designs.
Sliding restraint assemblies adapt to varying pallet widths, eliminating labor-intensive modifications required by fixed cargo systems.
An angled restraint roller disk rotates to guide cargo while preventing damage from protruding ULD features and tie-down fittings.
An eccentric lift roller with an offset channel and boss feature enables precise alignment during assembly.
Tiedown adapters with swivels and cable fairleads secure COTS containers to aircraft load rings, enabling rapid installation and in-flight equipment access.
Preassembled surface units integrate functional devices for template-style insertion, reducing on-site assembly complexity and ensuring watertight sealing.
Embedded linear synchronous motor tracks and electromagnets automate cargo positioning, eliminating manual labor and tripping hazards.
Pivoting restraint body and pawl mechanism secure specific pallets while allowing larger loads to override without damage.
Removable floor segments translate along fuselage rails to form a flat surface, maximizing cargo bay volume utilization while maintaining structural integrity.
Modular tugs with independent power units eliminate extensive control cables, reducing system complexity while enabling efficient long cargo runs.
A helicopter camera mount uses a counterweighted swing arm to reposition imaging devices below the fuselage.
Angled enclosure segments use centrifugal forces to secure payloads in rotor blades without adhesives or fasteners.
Actuator device shifts load element position to optimize center of gravity, resolving vertical take-off stability versus horizontal flight speed trade-offs.
An anchor-shaped retaining lug engages circular and straight L-track openings to distribute forces evenly, preventing surface wear and cracking.
Graphene reinforced rubber compound in cavity mandrels resists ULD impact damage, extending service life.
Integrating segment trays between floor beams creates a flush surface that increases cargo clearance by 2-3 inches without adding structural weight.
Segmented suspension members with high-friction grasping portions resolve wind-induced positioning errors and enhance delivery stability.
A baggage weight prediction system segments passenger data to forecast checked and carry-on loads using machine learning models.
Oblique side profiles on a rotorcraft load attachment beam deform under impact to reduce fuselage penetration risk.
Segmented rope support assemblies facilitate simultaneous deployment without airframe modification.
Radial extension of a luggage holder from an elliptical fuselage cargo hold eliminates manual baggage handling and reduces retrieval time.
Dynamic center of mass updates counteract momentum transfer and wind forces during suspended load delivery.
Cargo floor panels form sealed fluid ducts between structural rails, eliminating separate pipe brackets and reducing integration complexity.
A cargo loading system calculates freight position using drive unit status and overlap sensor signals.
Portable fuselage step uses automatic locking pins to eliminate aerodynamic drag from fixed running boards.
Segmenting load across three attachment points resolves strength complexity trade-offs for 8,000-pound capacity.