Electrolysis Components TRIZ Cases

Periodic bypass switching improves insulation monitoring in functionally grounded DC installations while limiting stray current corrosion and enabling fast fault shutdown.

An electrolytic cell generates hypochlorous acid in situ to sanitize beverage ducts while avoiding hazardous chemicals, salt storage, and excess energy use.

Recirculation gas flow and separator temperature are adjusted to keep ammonia or methanol loop pressure stable under variable fresh gas supply.

A heated catalyst converts ozone and water vapor into hydroxyl radicals, then reduces residual ozone for safer modular disinfection.

Robotic grasping, washing, and stripping replace crane-based electrode handling to cut logistics cost and improve tank positioning accuracy.

A same-side anode-cathode CdTe PEC layout cuts ionic losses and photocorrosion while improving solar-to-hydrogen conversion.

An NH-group dispersant forms complexes with porous carbon particles to minimize settling and improve transmittance control response.

Excess renewable power is stored as hydrogen and oxygen, then reconverted through steam-assisted combustion and turbine generation with water recovery.

Applied potential and electrode selection improve levulinic acid conversion to hydroxyvaleric acid with high selectivity and Faradaic efficiency.

A temporary overvoltage start-up mode heats the electrolyzer faster, cutting hydrogen production start-up time without fixed high-voltage operation.

A polymer adhesive layer and liner shield alkaline electrolyzer metal walls from corrosion, preventing sludge buildup and preserving electrolyte flow.

Selective ETL and HTL contacts on a semiconductor reduce electron-hole recombination and improve photocatalytic hydrogen production.

High-temperature co-electrolysis and heat recovery balance syngas for methanol synthesis while cutting energy use and CO2 intensity.

Virtual cell temperatures from operating data let PEM electrolysis plants control membrane heat without intrusive sensors, reducing degradation.

By coupling biosolids dehydration, pyrolysis, and water electrolysis, this case destroys PFAS while recovering clean water, energy, and green hydrogen.

A combined barrel and integrally geared centrifugal compressor raises electrolytic hydrogen to 30-40 bar for easier transport and storage.

Complex pipe geometry and hydrophilic coatings boost geothermal condensation from humid air, improving atmospheric water harvesting.

A shared methane-CO2 hybrid tank buffers intermittent renewable power, letting an rSOC switch between fuel cell and methanation modes.

Polysaccharide-derived MEG and PTA enable CO2-negative PET while controlled polymerization maintains narrow molecular weight distribution.

Clips and a fixing jig keep electrolyte membrane pieces taut and separated during cutting and boiling to prevent wrinkling and improve impurity removal.

A staged CO2 conversion, separation, and ion exchange route removes impurities from technical-grade Li2CO3 to reach battery-grade purity.

A zinc alloy formula and layered electroplating improve massage head strength, wear resistance, and static discharge in dry conditions.

A dual-layer electrochemically deposited catalyst sustains hydrogen production activity while improving durability and reducing excess catalyst use.

SO2-depolarized electrolysis cuts hydrogen energy demand for iron oxide reduction while reusing pyrite waste and sulfuric acid in steelmaking.

Feedback-controlled nanopore translocation uses electric fields and enzyme mediation to stabilize polymer speed and improve nucleotide resolution.

Oxygen-enriched calcination and separate exhaust paths raise CO2 concentration in clinker production, easing recovery and reuse for methane generation.

Supplying excess O2 to the absorption section and recycling tail gas cuts NOx emissions while shrinking nitric acid absorption volume.

Controlled electrolyte flow and voltage stabilize plasma polishing in small or curved measuring tubes, improving end and bend surface quality.

A FeS2, TiO2, Fe2O3, and g-C3N4 nanocomposite improves visible-light absorption and charge separation for water splitting and pollutant degradation.

Geothermal cooling chills a copper column so humid air condenses into freshwater, avoiding heavy desalination equipment and high energy use.

Reused leachate cuts acid demand and carbon emissions while converting iron, calcium, and silicate streams into saleable products.