Radiation TRIZ Cases

Baffles introduce turbulence into forced airflow, ensuring uniform UV-C exposure that deactivates viruses without impeding air movement.

Infrared thermal imaging detects occupants in static environments, allowing the control unit to modulate UV irradiance for safe disinfection.

Pivotable arms position UV lamps to eliminate pathogens on vehicle surfaces, preventing mechanical wear from traditional cleaning methods.

A liquid-filled light distributor uses refraction to emit ultraviolet radiation along a tubular body.

Segmenting openings into airflow and shielding zones reduces ultraviolet scattering hazards while maintaining purification function.

A segmented ultraviolet LED row expands sterilization coverage across the imager surface while minimizing power consumption, weight, and manufacturing costs.

Action detection triggers UV lamps, reducing power consumption and heat generation in enclosed spaces.

Applying a magnetic field alongside ultraviolet light extends free radical lifetime, increasing sanitization efficiency by 30 to 60 percent.

Portable Far-UVC air disinfection system redirects airflow using reflective partitions to increase irradiation intensity.

Ultraviolet light emitters inside an opaque cabinet direct radiation onto paper currency held in internal slots.

A sterilizing lamp circulates air through a filter and ultraviolet device to purify indoor environments safely.

A collapsible UV disinfection unit uses a reflective envelope to direct ultraviolet light toward shadowed areas on hospital surfaces.

An autonomous mobile chamber moves along surfaces to apply germicidal UV light, eliminating manual operation requirements.

A decontamination device uses a pulsed xenon lamp and spheroidal reflector to illuminate hollow objects.

Thio compounds reduce yellowing during ionizing radiation sterilization, maintaining low discoloration in medical devices.

A portable sanitizing wand emits 222 nm ultraviolet light to disinfect surfaces within vehicle cabins.

Baffle assembly reduces air speed and increases turbulence to maximize UV-C light exposure for pathogen sanitization.

Adaptive UV irradiance adjusts to air velocity changes, ensuring consistent pathogen deactivation while preventing harmful exposure.

A flexible substrate integrates ultraviolet radiation sources and control systems to enable portable disinfection within enclosures.

Automated timer control manages UV lamp operation to resolve manual operation bottlenecks and ensure consistent disinfection efficiency.

Metallic nanoparticle doping creates a transparent cleaning structure that resolves transmittance loss and coating wear.

Small etendue UV-C LEDs with collimating optics confine radiation within the active zone, preventing leakage into safe zones.

A checking device analyzes a gas medium released from polymeric containers to verify sterilization efficacy.

An automated conveyor system transports restaurant menus past ultraviolet lights to destroy pathogens without chemical cleaners.

A disinfection apparatus uses a tortuous flow path to expose fluid to UV-C and infrared emitters.

A removable adapter links a UV device to various containers, resolving versatility trade-offs while ensuring safe bacterial reduction.

A portable Far UV wand emits 222 nm light to neutralize microorganisms on surfaces.

Modular UV lamps oxidize impurities while ozone monitors maintain safe concentrations during industrial purification.

Phenol-based antioxidants suppress pH changes from elution in medical formed articles, preventing oxidative degradation while maintaining mechanical strength.

A self-propelled disinfection system uses 3D mapping to position an irradiating unit for uniform surface coverage.

A tangential fan with photosensitizer-coated blades generates reactive oxygen species to inactivate airborne pathogens.

Multiple emitters on a pivoting lid surround grooming implements for comprehensive sterilization, while indicators display activation status.

A modeled UVC ray emitter uses a flow circuit to dynamically tune wavelengths across the 200 nm to 280 nm spectrum.

A UV-C sterilizer adjusts fan speed to maintain pathogen exposure time, reducing energy consumption by deactivating bulbs when no pathogens are detected.

A polypropylene composition uses hydrocarbon oil and antioxidants to maintain mechanical integrity during sterilization.

An occupancy-controlled motor adjusts a reflector to direct ultraviolet light, resolving the trade-off between air disinfection efficiency and surface coverage.

Segmented UV components allow rapid module replacement, resolving the trade-off between fixed effectiveness and portability.

Actuated UVC emitters follow object surfaces to increase light intensity and speed sanitization.

Reflective walls and a rotating floor in a UV-C disinfecting chamber ensure complete pathogen deactivation without manual liquid application.

A control system adjusts RF energy parameters based on detected pathogen types to neutralize aerosolized microorganisms without environmental harm.

Segmented UV light sources emit 222 nm and 265 nm wavelengths to destroy pathogens while sensors prevent harmful human exposure.

An electrodeless ultraviolet sterilization device kills bacteria and viruses inside an air channel using a microwave-excited gas mixture.

A UV disinfection device uses a removable transparent film to shield the emitter from fluid contact.

Pre-crosslinked isobutylene blends with polyolefins prevent radiation-induced degradation and stickiness during sterilization.

Angled baffles create turbulence to prolong air dwell time near UVC sources, resolving insufficient exposure while containing radiation.

A submersible pump connector integrates an ultraviolet light source to irradiate fuel within a storage tank.

A reflective cavity aligns ultraviolet light with fan-driven airflow, reducing energy loss and improving air circulation efficiency.

Segmented mesh slits with rubber packing isolate photocatalyst beads, preventing frictional abrasion and fine powder generation in vibrating environments.