Electrolysis Components TRIZ Cases

Replacing cyanide with effective microorganisms eliminates toxicity while maintaining stable electrochemical reactions for safe metal deposition.

Gas bubbles carry attached contaminants to the surface, resolving low separation efficiency for fine particles without chemical waste.

A charge storage device positions above an electrolytic cell to hold anode assemblies and crust collection equipment using stable support means.

Electropolishing MP35N wire eliminates surface chevrons, resolving manufacturing precision constraints while sustaining 300 million stress cycles.

Sensor-based positioning replaces manual crane alignment to improve safety and accuracy.

Bicarbonate and carbonate ions transport hydroxide equivalents in biological fuel cells to maintain electroneutrality.

Proton-conducting membranes shift thermodynamic equilibrium by removing hydrogen, overcoming low conversion yields in direct amination.

Segmented AC/DC converters eliminate gas production losses from non-uniform load distribution among electrolyzers.

Magnetically coupled upper and lower frames align solar cells automatically, reducing manual placement errors and breakage during plating.

A plasma reactor generates hydrogen and nitrogen monoxide from water and air to feed downstream synthesis.

Direct solar DC power drives electrolysis, eliminating conversion losses and reducing production costs.

Electrodes generate nitric oxide from reactant gas while a controller regulates concentration using patient methemoglobin data to eliminate oxygen dilution.

Converting dichloropropane to propylene oxide via Lewis acid catalysis minimizes wastewater and chlorine costs inherent in traditional chlorination.

Acid etching titanium creates nanostructures that induce stress in anodized titania films to lower the bandgap energy.

Thermal incubation dissolves formalin crosslinks, enabling parallel protein and nucleic acid isolation from single FFPE samples.

Disposable conductive fillers ensure uniform current distribution for polishing complex shapes, eliminating fixture marks and burns.

Printed breakable cathodes allow uniform electrochemical polishing of inaccessible 3D printed metal inner walls.