Field: Deeply engaged in biochemical catalysis, focusing on 3 core scenarios: agricultural biostimulation, industrial biomanufacturing, and environmental bioremediation.
Technology: Develops high-performance biochemical catalysts based on cutting-edge bioengineering.
Value: Delivers solutions with "high specificity, high catalytic efficiency, and precise regulatability" to drive green and efficient industrial upgrading.
2. 3 Core Technologies (Competitive Advantages)
① Substrate Specificity
Core: Molecular structure matches specific substrates (e.g., plant growth enzymes, industrial raw materials); acts only on targets, no non-specific reactions.
Advantages: Boosts root nutrient absorption in agriculture (no harm to beneficial microbes); reduces raw material waste and improves target product purity in industry.
Data: Organic phosphorus utilization rate ↑40%+ vs. traditional catalysts (for greenhouse fruits/vegetables).
② Catalytic Reaction Mechanism
Core: Reduces reaction activation energy via "active site optimization + reaction pathway reconstruction".
Advantages: Solves "slow reaction, low conversion" under normal temperature/pressure; no extreme conditions (high temp/pressure) or toxic by-products (aligns with "green catalysis").
Core: Built-in environmental response module; auto-adjusts activity based on temperature, pH, and substrate concentration (inhibits overloading, maintains stability amid fluctuations).
Advantages: Adapts to complex scenarios; no frequent manual parameter adjustments, lowering operational difficulty.
Scenarios: Stabilizes nutrient conversion in open-field farming (resists soil pH changes); ensures consistent quality in continuous industrial production.
R&D core: "Precision, efficiency, sustainability"; all batches undergo strict lab verification and on-site testing to match practical needs.
Future focus: Deepen the "substrate-reaction-regulation" technical loop; launch scenario-specific customized products to drive global biocatalysis green upgrading.
