Hydrolases TRIZ Cases

See how engineered host cells with segmented enzymatic pathways replace complex chemical synthe

See how time-separated surfactant and protease dosing improves cleaning performance in high wat

See how engineered cutinase variants with specific amino acid substitutions hydrolyze cyclic ol

See how phenol or o-vanillin swelling agents combined with cutinase enzyme increase polyester h

See how amino acid substitutions at specific positions create protease variants with several hu

See how CE-7 esterase variants lacking the conserved HE submotif enable perhydrolytic peracid p

See how electroblown water-soluble fibers encapsulate enzymes at 25 microns or less to prevent

See how nuclease enzymes with DNase and RNase activity degrade surface nucleic acids to reduce

See how DNase enzyme in detergent breaks down biofilm DNA to reduce fabric creases by up to 90%

Targeted amino acid substitutions in Fe_RF6318 protease improve thermal and detergent stability while preserving low-temperature stain removal.

An acidic Aspergillus phospholipase enables oil degumming at pH 4.0 and 60°C with low lipase activity and residual phosphorus below 10 ppm.

A fungal serine protease maintains stain-degrading activity and detergent stability at low washing temperatures, helping cut energy use.

A fungal serine protease keeps stain-removal activity at low wash temperatures and across varied detergent pH and formulation conditions.

Lipase in polymer coatings breaks down fingerprint oils, while heat speeds volatilization for easy cleaning on high-gloss organic surfaces.