Products TRIZ Cases

Controlled 160-230°C PET oligomer processing with particulated adsorption removes impurities and color bodies while cutting energy use.

Blending virgin polypropylene with carbon black recycled foam controls melt flow and bead foaming to keep black parts strong and uniform.

Cooling syngas before PSA condenses and removes water or CO2, cutting compression energy and lowering condensation risk in carbon steel equipment.

Allowing inert gas slippage in PSA lowers inert buildup in ATR recycle gas, enabling more residual gas recycle with less heater firing.

A compatibilizing blend lets mixed-layer PET containers be mechanically recycled into homogeneous filament without chemical treatment.

Reactive CO2 capture uses zinc-aluminum-copper dual-functional materials to avoid desorption and convert CO2 with H2 into CO, methane, or methanol.

Selective dissolution and filtration separate incompatible PVB fractions to recover clear polymer with minimal haze for laminated glass reuse.

Dual antioxidants and purified rDMT improve crystallinity, thermal stability, and moldability for complex vehicle headlamp parts.

Controlled anion-modified PVA and plasticizer content help detergent capsule films resist early elution, deep draw cleanly, and dissolve without residue.

An external electric field speeds CO2 hydrate nucleation and growth, while rotating sieve filtration eases slurry separation and cuts energy use.

A stirred buffer tank recirculates residual-rubber liquid to cut wastewater and rubber loss while preventing pipeline deposits and blockages.

Mixed recycled PVB is dissolved, equilibrated, filtered, and solvent-extracted to control residual PVOH, haze, and discoloration.

Thermally initiated recycled polystyrene with a hindered phenolic antioxidant cuts residual styrene emission while improving recycling stability.

By integrating methanolysis with PET production, this case cuts energy use and waste streams while producing high-IV crystalline r-PET.

Bio-waste polysaccharides replace synthetic absorbents to retain water longer, release it slowly, and avoid soil and crop harm.

Alcoholysis turns waste polycarbonate into unsaturated oligomers that cure with PPE resins for high-frequency circuit boards with strong electrical and thermal properties.

Tangential swirl separation and liquid reheating improve gas-liquid-solid splitting in plastic pyrolysis while reducing char and stabilizing fractions.

Hydrothermal processing plus on-line distillation separates mixed plastic waste into gasoline and diesel while avoiding char and PAH formation.

Antioxidant additives stabilize plastic-derived synthetic feedstock by limiting oxidation, gum formation, and fouling during storage and transport.

A single PSA fed by cryogenic and shifted gas streams cuts hydrogen and carbon monoxide separation cost while preserving purification efficiency.

Aluminum and phosphorus compounds help recycled polyester film resist coloring and molecular weight loss during polycondensation.

Recycling the fine-rubber liquid phase back to precipitation reduces wastewater loss, salt disposal, and blockage during rubber dewatering.

In-situ water removal with a NaA zeolite membrane boosts CO2 conversion and methanol purity under moderate hydrogenation conditions.

Controlled biomass combustion preserves carbon in ash, enabling recovery and activation into useful activated carbon with higher yield.

A base, monohydric alcohol, and carbonic acid diester enable low-temperature polyester breakdown into high-purity monomers from fibers, films, and bottles.

External stripping gas generation avoids reboiler boiling and new gas-liquid interfaces, improving biocatalyst stability in CO2 capture.

A heated reactor converts mixed post-consumer and post-industrial polyolefins into hydrocarbon feedstocks at industrial scale.

Abrasive auxiliary media mix waste for even pyrolysis heating, scrape reactor walls, and bind halogens to improve yield and reduce pollutants.

Interlocking fastening rings and ultra-pure silicone improve nipple-to-body bonding to prevent formula milk leakage during feeding.

High-silica zeolites in polyolefin films adsorb odor-causing VOCs from PU foam without slow stripping, while preserving foam properties.

A staged heating profile peaks then holds waste plastic at a lower reaction temperature to cut coke formation and improve liquid yield.

A moving sorbent monolith loop replaces rapid-cycling valves in direct air capture, improving reliability while cutting CAPEX and operating cost.

A stable initiator and hindered phenolic antioxidant cut residual styrene during polystyrene recycling while preserving thermal stability.

Salt-mediated melt mixing lowers recycled polyamide viscosity while preserving melt stability and mechanical properties for injection molding.

Recovery amount feedback adjusts electrochemical CO2 adsorption time to cut energy waste and keep carbon dioxide capture stable.

An alkali absorbent and three-chamber electrolysis cell separate CO2 from air with lower desorption energy and a pure output stream.

Controlled heating and residence time in a pyrolysis reactor turn mixed post-consumer polyolefins into valuable hydrocarbon products at scale.

Sub-atmospheric pyrolysis with multistage condensation boosts C20-C60 wax yield from polyolefins while limiting secondary cracking and energy use.

Multi-stage lamination with cool pressing plates absorbs waste extrusion flow variation to form wider, thicker thermoplastic boards uniformly.

Hydrothermal conversion plus on-line separation turns mixed plastic waste into cleaner gasoline and diesel while minimizing PAHs, char, and catalyst fouling.

Controlled heating in pyrolysis reactors converts mixed polyolefin waste into hydrocarbon products while lowering energy use at industrial scale.

User-replaceable adsorbent cartridges let portable oxygen concentrators maintain oxygen purity and air-tight seals without full disassembly.

Vacuum steam stripping splits waste rubber pyrolysis oil into a high-flash-point marine fuel component and a light naphtha fraction.

A self-assembling peptide gel adheres to sutured digestive organs and resists pancreatic enzyme breakdown to help prevent early leaks.

Low-oxygen biomass gasified at 600-900°C with short residence time boosts olefin-rich syngas while separate combustion supplies heat.

Induction heating, basket vibration, and inert gas cooling help decompose tires and separate carbon, ash, steel, and gas products.