Package Sterilisation TRIZ Cases

Holding elements insert into containers to expose outer walls directly to accelerated charge carriers for sterilization.

A washer sterilizer directly couples to a filling unit to aseptic transfer interchangeable parts within a single process.

Low-energy electron beam scanning sterilizes PET containers by directing radiation to surfaces, avoiding material deterioration from high-energy penetration.

Carriers with binders maintain precursor shape to prevent misconfiguration errors and ensure uniform polymer deposition rates.

A filling machine sterilization station uses a clean air supply system to direct filtered air jets toward packaging containers.

Plasma generates reactive oxygen species to sterilize surfaces, eliminating residual chemicals and reducing treatment costs.

An oxyhydrogen burner heats air to sterilise containers without high-voltage electric elements.

Segmented sterile chambers reduce contamination downtime by isolating individual containers, allowing unaffected units to continue operation.

A forming unit uses a movable heating element to seal packaging material webs into tubes.

Multiple irradiation windows along the conveying direction ensure complete vessel sterilization despite spark-induced interruptions.

Automated quality control links machine data to packages for efficient anomaly detection.

Segmented conveyor system places inspection at ground level to resolve maintenance access issues while ensuring reliable transport.

Independent operating modules enable fast adaptation to varying container formats, reducing downtime and waste in sterile confectionary production.

Cooling stents below ambient temperature during radiation exposure prevents polymer embrittlement and maintains drug loading efficacy.

A sterilization system adjusts internal pressure to preserve food structure and aroma during thermal treatment.

A fluid injection collector uses a pneumatic pusher to maintain sealed contact with a supply track on moving containers.

Nested barriers maintain elevated vapor pressure for volatile corrosion inhibitors, preventing premature loss of effectiveness in electronic components.

Sanitized liquid lubricant sprays onto outer tube surfaces, preventing interior contamination from droplet infiltration during welding.

Aseptic packaging fills and stoppers pre-filled syringes in a controlled environment to maintain pharmaceutical sterility.

Tremella stabilizes hyaluronic acid against sterilization degradation, preventing contact lens sticking.

A sterilization apparatus drying portion uses squeegee rollers and gas nozzles to remove chemical agents from packaging material.

Applying sacrificial closures to empty flexible pouches enables collective ionizing radiation sterilization during transport.

A dispenser pump apparatus feeds filtered air into a product container, preventing contamination and extending shelf life without preservatives.

Self-sealing septums enable easy reservoir swapping without cannula removal, resolving filling difficulties for patients with motor deficiencies.

Distinct through openings in a penetrating tool extract air from deep trays, resolving residual air issues that degrade product quality and shelf life.

Automated vertical form fill seal system attaches external fitments to packaging film for aseptic processing.

Cold plasma and vacuum treatment inside the sealed bag maintain aseptic conservation for up to 800 hours.

A beam collector measures electric current to verify irradiation levels, enabling immediate rejection of defective vessels and preventing contamination risks.

A rotary feed system uses a buffer chamber to isolate static and rotating parts, preventing bacterial contamination during container treatment.

A catalyser device decomposes hydrogen peroxide vapours into harmless water and oxygen, eliminating operator exposure risks from toxic chemical emissions.

A packing apparatus uses superheated steam to sterilize materials and containers before sealing.

Segmenting aseptic filling zones into isolated areas minimizes cleaning downtime while maintaining microbiological safety.

Negative air pressure in a sealed dispensing chamber prevents airborne contaminants from entering or leaving the filling area.

Machine learning evaluates process data to determine H2O2 concentration, eliminating physical sensor complexity.

Overlapping container covers prevent gas exchange between enclosed spaces, maintaining sterile environments without complex mechanical flaps.

Segmented manifold ports direct nitrogen gas into vials to displace oxygen, resolving the contradiction between purging effectiveness and device complexity.

Movable injectors distribute vaporized hydrogen peroxide into bottles, eliminating complex inversion mechanisms and sterile water rinsing costs.

Interchangeable inserts in a sealing member socket adjust convex portions to control package volume without complex setup changes.

Autoclaving silicone hydrogel lenses in buffered saline distributes polymeric surfactants within the matrix for sustained wettability.

A second longitudinal weld isolates non-decontaminated parts from the product, resolving contamination risks in sterile flexible packaging.

Ethanol and water mixture reduces surface tension to prevent gas bubble entrapment on the sensing area.

Rigid sterilization container uses a valve body to move between open and closed positions for fluid communication.

A sliding dome system supplies ozone gas and UV-C light to sanitize pallet boxes without chemical detergents.

Gamma irradiation and gas treatment sterilize butyl rubber syringe plungers, preventing hydrolysis-induced leakage.

Sealed collection containers enable diffusion-based sterilization of packaged consumer goods, preventing spore contamination during transport.

Customizable motion profiles control beam acceleration to increase hourly processing speed while preventing liquid sloshing during filling.

A switching device redirects sterilization medium away from containers during machine stoppages.

Fixing elements secure a multi-layer laminate to prevent moisture penetration at the longitudinal seam.

Guiding jets with sterile air prevents uncontrolled entrainment of contaminants, ensuring stable operation and reliable aseptic packaging.