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Applications: include: Biofuels, Recycling, Biogas.

Key properties: Specially blended formulation to transform your corn (maize) biofuel yields whilst preventing inhibitor issues.

Overview: Tailored enzyme blend for corn (maize) conversion specifically formulated to efficiently break down the starch-rich biomass into fermentable sugars for bioethanol production. This blend, developed by high-throughput screening, combines α-amylase, glucoamylase, and pullulanase enzymes, each playing a complementary role in hydrolysing complex starch polymers into glucose. α-Amylase initiates the liquefaction stage by cleaving internal α-1,4 glycosidic bonds, reducing viscosity and producing dextrins. Pullulanase enhances saccharification by debranching α-1,6 linkages in amylopectin, while glucoamylase completes the process by converting dextrins and oligosaccharides into fermentable glucose. The key benefits include maximized sugar yield, reduced processing time, lower enzyme dosage requirements, and improved ethanol productivity. Additionally, optimised enzyme blends operate effectively across a broad pH and temperature range, supporting continuous, energy-efficient bioethanol production and improving the overall economic and environmental sustainability of the process.

  • Certification: Biofuel Grade
  • Enzymes: α-Amylase, exo-Cellulase, endo-Cellulase, Glucoamylase, Pullulanase and Xylanase
  • Temperature Range: 15–60°C
  • pH Range: 3.5–5.5
  • Inhibitor Compatibility: High tolerance
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Supporting technical guides

Enzymes for Starch Bioethanol: Corn, Grain and Potato Conversion

Bioethanol and starch processing

Enzymes for Starch Bioethanol: Corn, Grain and Potato Conversion

Compare corn, grain and potato enzyme blends for bioethanol. Assess starch preparation, glucose release and fermentation on a dry-feedstock basis.

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Enzyme blends: structure, mechanism and industrial uses

Enzyme science · Deep dive

Enzyme blends: structure, mechanism and industrial uses

Formulated blends combine selected activities to address multiple bonds or sequential reaction steps in food, cleaning and biomass processes.

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Alpha-amylase: structure, mechanism and industrial uses

Enzyme science · Deep dive

Alpha-amylase: structure, mechanism and industrial uses

Rapid internal chain cleavage makes starch slurries easier to pump and prepares them for brewing, glucose production, cereal drinks and removal of starch-based stains.

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Exo-cellulase: structure, mechanism and industrial uses

Enzyme science · Deep dive

Exo-cellulase: structure, mechanism and industrial uses

Cellobiose release complements endoglucanase in biomass saccharification; beta-glucosidase then converts the cellobiose into glucose.

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Endo-cellulase: structure, mechanism and industrial uses

Enzyme science · Deep dive

Endo-cellulase: structure, mechanism and industrial uses

A limited number of internal cuts can reduce viscosity, loosen fibres or remove surface fibrils before extensive sugar production occurs.

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Glucoamylase: structure, mechanism and industrial uses

Enzyme science · Deep dive

Glucoamylase: structure, mechanism and industrial uses

Conversion of liquefied starch into glucose supports fermentation feedstocks, glucose syrups and alcohol production.

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Pullulanase: structure, mechanism and industrial uses

Enzyme science · Deep dive

Pullulanase: structure, mechanism and industrial uses

Debranching supports high-glucose or high-maltose syrups and enables more complete use of branched starch dextrins.

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Xylanase: structure, mechanism and industrial uses

Enzyme science · Deep dive

Xylanase: structure, mechanism and industrial uses

Cleaving the xylan backbone supports cereal processing, dough modification, pulp treatment and access to fermentable biomass carbohydrates.

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