Aircraft Cleaning TRIZ Cases

Independently controlled suction devices boost Mecanum-wheel traction, enabling precise NDE motion on inclined and curved aircraft surfaces.

A fluid-jet nozzle applies time-varying loads to aircraft structures without actuator grounding that would distort stiffness and response.

Hydroxyl radicals generated from UV optics disinfect cabin air, crevices, pathogens, and VOCs beyond line-of-sight UV limits.

A fluid-driven nozzle applies variable, predictable force vectors to aircraft structures without grounding effects that distort stiffness and response.

A fluorescent surface indicator absorbs UV-C and emits visible light, making sanitization progress visible in real time.

A rotating reflector redirects UV flux into shadowed vehicle areas while negative pressure removes ozone for thorough interior sterilization.

An intelligent central controller coordinates aircraft lavatory sensors and actuators, reducing redundant wiring, weight, and power draw.

UAV plotters mark limited-access surfaces while stabilizers support controlled application.

An automated UV-C system sanitizes aircraft cabins without chemical residues or manual labor, reducing disease transmission risks.

Mobile sanitization device with articulated arms directs UV radiation across aircraft seats for rapid disinfection.

Multi-axis rollers on a rotating base enable one-handed wheel positioning, reducing technician fatigue during soda blasting.

A self-service cleaning robot maintains lavatory hygiene during flights by autonomously navigating unoccupied spaces to remove debris and disinfect surfaces.

Sealing assembly with intermediate layer and fluid flow counters titanium splinters entering rotor blade spars during manufacture.

Articulated UV-C arms on a mobile cart sanitize aircraft interiors while preventing human exposure to harmful radiation.