Products TRIZ Cases

Segmenting drying and torrefaction into separate reactors prevents oxidation, enabling high-yield phenolic extraction from agricultural waste.

Processed cellulosic fibers integrate with granular particles to replace peat moss while improving soil mixing and moisture retention.

Dynamic covalent bonds allow reprocessing thermosets while maintaining mechanical strength.

A two-stage process for recycled thermoplastic polyurethane using hydroxyl compounds and matched isocyanates.

Integrated mineral carbonation dissolves magnesium from silicate minerals using CO2 gas streams to produce high-value carbonate products.

Controlled pyrolysis produces biochar with tailored surface area and pH, resolving versatility versus manufacturing complexity.

Electrolyzer cell enriches dilute flue gas with oxygen to produce a high-concentration carbon dioxide stream, reducing energy input required for CO2 removal.

An integrated process synthesizes urea from ammonia and carbon dioxide while producing glycerol carbonate.

Replacing expensive organotemplates with cycloalkylammonium and ethyltrimethylammonium reduces production costs while accelerating reaction times.

Composting apparatus recycles ammonia via biological conversion, preventing nutrient loss and foul odors during rapid processing.

An entrainer facilitates separation of butanol from water and extractant, reducing degradation while improving purity.

Fluidized bed pyrolysis reactor uses an induction heater assembly to inductively heat particulate material.

Lateral conveyor tilting creates uniform compost layers, resolving compaction issues and reducing energy consumption.

Highly siliceous zeolite Rho resolves thermal instability in gas separation by maintaining high silica ratios for reliable CO2 adsorption.

A methyl methacrylate composition blends regenerated and non-regenerated monomers to form polymers with enhanced thermal stability.

UV dyes and chemical tracers mark bio-based plastic articles for automated detection during sorting.

A compact syngas generator recycles treated char and gas to enhance cracking reactions.

Sensors trigger automated grate shaking to clear bridging, ensuring constant synthesis gas supply without manual intervention.

Recycles excess carbon monoxide from methanation back into the gasification reactor, eliminating separate water-gas shift steps and reducing energy loss.

Segmented absorbers with flash drums reduce regeneration energy while achieving low residual H2S concentrations.

A process converts phosphogypsum into calcium carbonate to capture atmospheric carbon dioxide using sodium hydroxide absorption.

Internal water gas shift catalyst converts carbon monoxide using anode steam, reducing system complexity and eliminating external water supply needs.

Catalyst coating lowers pyrolysis temperature, preventing fiber oxidation and preserving mechanical properties during recovery.

A two-stage scrubbing process uses preloaded methanol to remove sulfur components from synthesis gas while preserving carbon dioxide content.

Draft tube baffles split syngas flow to reduce entrained liquid momentum, resolving separation efficiency versus device complexity trade-offs.

A hollow U-shaped liquid reservoir manages fluid flow within food waste recycling appliances.

A plasma reactor desorbs carbon dioxide from a sorbent and converts it to carbon monoxide in one step.

Medium pressure dissociation segments urea synthesis streams to reduce steam consumption in high pressure strippers.

Composite microspheres with rigid silica cores and flexible polymer shells resist high temperatures and salinity while adapting to formation fractures.

Tailored recycled plastic processing uses specific chemical compounds and fillers to adjust melt flow rate and tensile strength.

Freezing water out of the gas stream cuts methanol circuit loads, lowering operating costs and plant dimensions.

Parallel passage contactor designs accelerate mass transfer in rapid thermal swing adsorption systems.

Acid extraction isolates soluble phosphorus from solid animal waste to prevent soil eutrophication and recover fertilizer resources.

Segmenting absorption into distinct steps prevents aromatic enrichment in the methanol solvent, extending service life while maintaining sulfur gas purity.

A coaxial gasifier system converts biomass to synthesis gas using a dedicated char tube and inlet valve.

Polyethylene composite uses PET compatibilizer and metal fillers to bond layers and conduct heat, resolving modulus of rupture deterioration.

A methanol carbonylation absorber tower uses a switching system to alternate between scrubber solvent sources for flexible operation.

Segmented catalyst beds and pre-saturated liquid mixing resolve pump gas binding and low conversion rates in carbonate synthesis.

A water-repellent filter unit captures mist amine absorbent to prevent atmospheric release and nitrosamine formation.

A basic catalyst captures halogen impurities during steam-assisted pyrolysis, improving liquid hydrocarbon yield and quality.

A biological energy matrix captures solar radiation to balance hydrogen cycles in degraded soils.

Liquid washing removes mineral deposits that combustion leaves behind, restoring catalyst activity.

Pre-heats nitric acid tail gas via indirect heat exchange to activate iron-loaded zeolite catalysts.

Amine absorbent solution maintains monophasic state during absorption, reducing regeneration energy and equipment size.

Catalytic pyrolysis transforms waste biomass into valuable nitrogen-containing aromatics, replacing petrochemical routes that cause environmental pollution.

Bacterial oxidation of carbon waste produces humic acids, resolving low dispersion and long processing times.

High pressure gas streams strip carbon dioxide from liquid to yield a high pressure effluent, reducing compression work required for pipeline transport.