Products TRIZ Cases

Hybrid process merges flue gas with reject brine using an amine mediator to resolve slow absorption rates and high capital costs.

A furan skeleton iminoguanidine derivative acts as an acidic gas absorbent with mild reaction conditions.

Divides tail gas into streams for acid-gas removal and fermentor recycling, resolving mass-transfer limitations that inflate reactor size.

Nickel composite catalyst minimizes coke formation and sulfidation to maintain activity during thermo-neutral reforming of heavy fuels.

Using insoluble metal oxide reactants to form dense SOD frameworks, eliminating large cages that reduce carbon dioxide adsorption.

A solid organic peroxide composition with a water retaining agent enables high melt strength polypropylene production.

Wet grinding red mud with carbon dioxide produces an alkaline slurry for activating carbide slag.

Integrated carbon dioxide capture system recovers emissions from cement kilns and converts them into stable carbonate products, reducing greenhouse gas output.

5A molecular sieves separate HFC-23 from larger molecules like CF3I, lowering concentrations below 10 ppm without complex equipment.

Crosslinked amine-functionalized porous polymers achieve high CO2 uptake and selectivity over nitrogen while maintaining stability in humid gas streams.

Independent gas inlets and microwave heating in a zoned fluidized bed reactor reduce footprint and ash content during biomass torrefaction.

Molten salt heating in multi-zone reactors separates oil vapors from carbon black, improving product quality and yield.

Loose spatial elements enhance heat exchange in thermal decomposition reactors, reducing carbonization and improving product quality.

Mesoporous chabazite zeolite adsorbs carbon dioxide through structural transformation and hydrothermal treatment.

An acyclic aza-containing ligand complexes with metal ions to catalyze carbon dioxide hydration.

Thermal conduction via the distribution element removes heat from the reactor, resolving energy accumulation during pyrolysis.

Chelated lithium and selenium salts with natural adjuvants enhance micro-element absorption in edible plant tissues.

Concurrent startup of reformer and PSA unit with nitrogen and hydrogen purging reduces fuel consumption and startup time.

A carbon nanomaterial-supported catalyst uses grafted phosphonium salt polymers to drive cycloaddition reactions.

Microwave plasma heating in a fixed bed gasifier cracks tar at high temperatures, yielding clean syngas with over 85% efficiency.

Continuous thermolysis apparatus separates plastic waste vapors via direct contact condensers and wiped film evaporators to reduce coke formation.

Grafting amines onto cellulose backbones boosts CO2 adsorption capacity while lowering regeneration temperatures compared to conventional sorbents.

Integrating a pyrolysis reactor inside the combustion chamber recovers valuable biochar while avoiding the capital investment of standalone facilities.

Phosphorus promoters suppress carbon precipitation on mixed oxide supports, enabling stable CO conversion with reduced water vapor.

Pressure swing adsorption purifies hydrogen from plasma tail gas using differential adsorption under varying pressure conditions.

Heated ethylene glycol extracts coloring components from colored PET fabric before depolymerization to yield high-quality recycled resin.

Using biologically degradable polymers in security elements resolves the contradiction between counterfeit protection durability and environmental pollution.

Vacuum pyrolysis converts waste plastics into high-yield C20 to C60 wax, avoiding secondary cracking and reducing energy consumption.

Segmenting exhaust gas flow rates stabilizes absorption efficiency while reducing energy consumption from frequent adjustments.

Tubular membrane reactors separate hydrogen via diffusion while sweep gas displaces permeate through countercurrent flow.

Vertical stacking of reducing mechanisms and heating elements enables continuous compost production while minimizing floor space requirements.

Hydrotreating sorbitol with diesel co-feed prevents catalyst fouling and maintains activity at elevated temperatures.

Sequential solvent washing removes additives from dissolved polystyrene, restoring melt flow index to match new material specifications.

Biochar-infused horticultural media stabilizes microbial populations during aerobic aging, reducing pest carryover in reused soil.

Hot oxygen generator provides supplemental heat for partial oxidation of methane and tars in syngas streams.

A recycle valve directs hydrogen sulfide rich streams from a regenerator back to a contactor, increasing H2S concentration by 70% and improving SRU capacity.

Segmented porous sides allow worm movement while excluding vermin, enabling nutrient leaching into the root zone.

Transforms gaseous CO2 into stable solid carbon via methane cracking, eliminating high-pressure compression risks.

Thermal treatment converts aged binder into a coke layer, enabling 30% recycled content in road asphalt without quality loss.

Branched tertiary amines with steric hindrance groups resolve the contradiction between fast acid gas absorption rates and low corrosiveness.

Pressure vessel acidification and ammoniation of sludge produce high-nitrogen fertilizer, eliminating large-scale drying facility costs.

Alkali-treated activated alumina adsorbs acid gases from hydrocarbon streams, eliminating energy-intensive distillation steps.

Partner plants support mycorrhizal fungi proliferation, resolving the trade-off between environmental sustainability and system complexity.

Segmented terminal assembly allows pre-aligned ferrules to pass through microducts, reducing on-site termination time and labor costs.

Optimizing polyamide CH2-ratios between 5.5 and 10 resolves the trade-off between structural stability and recyclability in hydrogen storage tanks.

Reducing pressure enables dry steam generation below 100 °C, resolving the contradiction between low-temperature desorption and effective CO2 purging.

DMTA alkanolamine reduces amine volatility and energy consumption while maintaining efficient hydrogen sulfide removal.

Electromagnetic induction replaces rotary drum furnaces, resolving non-homogeneous heating and high energy consumption in waste steel processing.