Biofuels TRIZ Cases

Phenolic compound oxidizing enzymes remove inhibitory compounds from pre-treated lignocellulose, reducing process complexity and water usage.

Alkali addition adjusts pH to precipitate magnesium from cellulosic biomass sugar liquid, preventing membrane clogging during fermentation.

Trichoderma reesei host cells express glucoamylases from Aspergillus fumigatus to catalyze starch saccharification at elevated temperatures.

Combining alpha-amylase and thermostable endoglucanase during liquefaction reduces residual starch to boost ethanol yield.

Dried spent grain with segmented particles achieves efficient boiler combustion, eliminating smoke emissions while meeting environmental standards.

Composite Mo-S-Ni catalysts convert triglycerides into oleochemicals with high selectivity, resolving the trade-off between productivity and device complexity.

Targeted amino acid substitutions in the enzyme reduce oxygen sensitivity and byproduct formation while maintaining high productivity.

A heat exchanger transfers thermal energy from reactor steam to biomass, eliminating pressure fluctuations and maintaining stable carbonization parameters.

Substituting residues at positions 268 and 293 in alpha-amylase variants maintains catalytic activity under low pH and high temperature conditions.

Cultivating host cells in sugar-depleted environments using pretreated lignocellulosic biomass to produce hydrolytic enzymes.

A fuel production system adjusts the hydrogen supply to a gasification furnace for liquid fuel synthesis.

A vertical reactor extracts biochemical products from hydrothermal carbonization biomass using steam and gas transfer.

Amino acid modifications at positions 225, 238, 240, and 241 boost beta-glucosidase activity to reduce cellobiose inhibition during biomass decomposition.

Engineering glycerol-3-phosphate dehydrogenase reduces glycerol production, improving butanol yield and molar ratio.

Aerobic digestion of plant biomass slurry using naturally occurring microorganisms to produce a purified fuel product.

A hydrodeoxygenation process converts vegetable oils into green diesel using a Nickel-Molybdenum catalyst supported on alumina-titania.

A single-step hydroprocessing method using a sulfur-tolerant NiW dewaxing catalyst converts biological feed directly into fuel components.

A self-sufficient process for lignocellulosic hydrolysis integrates on-site enzyme production using the hydrolyzate as fermentation medium.

Hybrid maize variety X05H226 combines multiple traits through controlled crossing of distinct inbred parent lines.

Dynamic substrate control via CO to CO2 ratios reduces acetate by-products and boosts ethanol yields.

Deleting acetate production genes shifts electron flux toward ethanol synthesis, resolving the trade-off between productivity and harmful byproduct formation.

Fluorinated ion-exchange resin removes metal cations from biomass-derived pyrolysis oil while preventing sticky oil fouling during cleaning.

Combining DGA1 overexpression with TGL3 knockout resolves unpredictable lipid accumulation by segmenting synthesis and degradation pathways.

Acetogenic microorganisms produce acetate and ethanol from carbon sources, replacing expensive metal catalysts in biocatalytic oxidation.

Microwave radiation replaces wall conduction to heat biomass uniformly, resolving slow heating and poor temperature distribution.

A bifunctional phosphoketolase-phosphotransacetylase fusion polypeptide channels carbon flux toward ethanol production.

Reducing xylan acetylation via ESK1 mutation improves biomass digestibility without compromising plant growth or yield.

Segregating biomass and petroleum streams prevents catalyst deactivation while recycling hydrogen sulfide to maintain activity.

Alpha-hydroxysulfonic acid hydrolyzes biomass at low temperatures, reducing furfural formation and enabling efficient acid recovery.

Planting poplar trees at high densities on ridges eliminates grinding and binder use, reducing production costs while increasing output per hectare.

Drying, compressing, and carbonizing biomass creates dense briquettes that resolve ignition difficulties without toxic additives.

Steam extraction and hydrolysis of cellulosic biomass yield energy-dense pellets that reduce ash content and improve boiler efficiency.

A simultaneous saccharification and fermentation process converts lactose in whey permeate to ethanol using a specific pH range.

Cellobiohydrolase fusion polypeptides hydrolyze cellulose into fermentable sugars.