Products TRIZ Cases

MWF-type zeolite achieves high CO2 selectivity by reducing crystal lattice distortions through precise parameter changes.

Water purification loops recycle process streams to eliminate fresh water consumption and waste discharge during synthetic fuel production.

PEI-nanocarbon composites lower regeneration energy costs by absorbing CO2 at 75°C while maintaining selectivity across varying industrial flue gas conditions.

Segmented screw conveyors maintain homogeneous pressure and temperature conditions within the gasifier, improving biomass conversion efficiency.

Controlled oxygen levels prevent hazardous fluorine and uranium release during thermal decomposition.

A water-selective membrane separates water from urea solution, replacing vacuum evaporation equipment and reducing energy consumption.

Water reacts with dissolved metals in diphenyl carbonate to form removable hydroxides, eliminating catalyst residues that cause discoloration.

Back pressure regulator pressurizes adsorbent beds during startup, preventing impure gas contamination and reducing cycle time.

Fine zeolite catalytic beds reduce sulfur oxides and mercury without liquid waste generation.

A dimethyl carbonate synthesis process recycles 3-chloropropane-1,2-diol as a reactant to maintain continuous production cycles.

Sintering an amorphous oxide with a removable metal salt creates mesopores, reducing manufacturing time from weeks to one day.

Recycling post-recovery gas supplies oxygen for desulfurization, reducing equipment damage and lowering operational costs.

A booster compressor raises syngas pressure before the acid gas removal system to enhance solvent absorption efficiency.

Offset compression springs counterbalance pressure forces in a rotary valve, reducing torque and wear while preventing leakage.

Acid extraction selectively removes carbamates from the resin, preventing alkanolamine loss and waste stream contamination.

Heat treatment raises rubber granule density to 1.0-1.5 g/cm³, enabling high-volume inert replacement without bitumen dissolution.

A carbon dioxide recovery system uses an expeller unit to purge residual gases from collector pipes before desorption begins.

Granules merge organic fertiliser and water absorbent polymer to prevent phase separation during application while retaining moisture.

An aqueous amine and calcium solution captures carbon dioxide gas to precipitate stable mineral solids.

A non-aqueous heat transfer medium recovers thermal energy from waste plastic pyrolysis effluent to preheat feedstock upstream of the reactor.

Replacing air with oxygen in the Claus furnace eliminates nitrogen dilution, reducing equipment size and energy consumption for high-purity CO2 recovery.

Potassium catalysts accelerate tyre carbon conversion in a fluidized bed, reducing heating energy consumption and shortening processing time.

Flash hydropyrolysis converts recalcitrant biomass components into synthesis gas using superheated steam, preventing recombination into polymerized compounds.

Segmented washing removes contaminants while coupling agents enable mixed polymer recycling.

Amino acid solvents convert carbon dioxide into regenerable bicarbonate nanofibers, eliminating expensive catalysts and reducing energy consumption.

Phosphate stabilizers preserve thermal stability in recycled styrenic resin foam, resolving the trade-off between flame retardancy and environmental health.

Amino-siloxane composition absorbs carbon dioxide while maintaining low viscosity and reducing energy consumption.

Segmented packed beds and demisters in the advanced desulfurization-cooling column minimize liquid entrainment into the absorption stream.

A pull mat combines unidirectional threads with an open material layer to enhance tensile strength and air permeability.

A hybrid membrane-amine process enriches hydrogen sulfide from sour gas streams using selective permeation and absorption.

A rotary kiln removes plastic matrix residues via indirect heating to prevent uneven temperature distribution and fiber degradation.

Selective non-catalytic reduction removes nitrogen dioxide from propane dehydrogenation exhaust gas using glycerin and ethylene glycol.

Hydrothermal carbonization converts biomass into high-energy-density char, enabling tar-free synthesis gas while reducing equipment complexity.

A composite amine absorbing solution dissolves linear monoamines, diamines, and amide group-containing compounds in water to enhance gas absorption.

Removes ammonia, carbon dioxide, and biuret from process water through flash evaporation to meet ISO 22241 standards without energy-intensive deionization.

Post-synthetic modification of ZIF-90 with amino alcohols improves CO2 selectivity and uptake, resolving trade-offs in material complexity.

Solvent absorption unit removes carbon dioxide from the membrane permeate stream without compression to achieve high hydrocarbon recovery rates.

Isoparaffinic solvent dissolves polyolefin plastic while bleaching agents remove pigments, maintaining molecular structure integrity during recycling.

Metal oxide coated activated carbon guard bed captures hydrogen sulfide from synthesis gas streams.

A self-regulating compost bin uses a controller and fan to manage internal temperature for safe pathogen elimination.

Segmented iron and nickel catalysts convert carbon dioxide into valuable hydrocarbons while reducing unreacted gas discharge.

Lithium borate sequestration materials capture carbon dioxide with high capacity, resolving regeneration effectiveness losses over repeated cycles.

Thermal swing adsorption paired with pressure swing purification recovers clean inert gas, preventing catalyst poisoning from sulfur contaminants.

A pyrolysis system converts plastic feedstock into diesel fuel through thermal decomposition and hydrogenation.

Segmented composite chips preserve fibre length and orientation within a cured adhesive matrix, achieving 70% of virgin material strength.

An auger and wiper assembly moves recycled food waste between bins, preventing chute buildup and ensuring uniform distribution.

A regenerative vessel oxidizes hydrogen sulfide in biogas using an oxygen-fed oxidizing agent.

Segregating feedstocks by ash content in a two-stage gasifier prevents metallic impurity vaporization, reducing energy consumption and simplifying cleanup.