Biofuels TRIZ Cases

A piston-driven reactor moves biomass without compaction to enable reactant penetration.

A lignin pellet production system converts biomass into high-lignin fuel pellets through hydrolysis and controlled drying.

Modified hydroxylases convert alkanes to alcohols, avoiding over-oxidation and harsh chemical requirements.

Triacylglycerol additives delay nucleation and reduce crystal size in biodiesel, lowering cloud point without compromising oxidative stability.

Beta-agarooligosaccharide hydrolase hydrolyzes agarotriose residues, raising saccharification yield from 50 to 70 percent.

Carbon dioxide lowers the pH of cholinium lysinate solutions to enable direct enzymatic saccharification of biomass polysaccharides.

Alkaline treatment raises slurry pH to neutralize inhibitors, improving saccharification yield without washing.

Zymomonas mobilis consumes dissolved oxygen to create an anaerobic environment, suppressing lactic acid bacteria contamination and increasing ethanol yield.

A dry pelletizing system fuses plastic waste using heated screws and filters impurities without water.

A solid biomass fuel production process using torrefaction to enhance mechanical durability and waterproof properties.

Variable pitch and depth in the extruder screw increase pressure and heat transfer, enabling efficient pyrolysis at lower temperatures.

Synthesizing dioxolane fuels from lignocellulosic biomass lowers viscosity and raises cetane numbers compared to conventional biodiesel.

A cellulosic material liquefaction process uses a choline chloride and urea eutectic mixture to achieve high saturation levels in monomeric products.

Oscillatory flow in supercritical biofuel lines reduces biomass viscosity, enabling longer reaction times without excessive pressure drops or tube length.