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SolnZyme™
Enzyme Engineering Platform

SolnZyme™
Enzyme Engineering Platform

Algorithm-Powered Evolution.
Precision Engineering for Next-Generation Enzymes.

Integrating AI with molecular dynamics simulations, SolnZyme™ enables intelligent structural design and functional prediction of enzyme proteins. Powered by a physics engine and protein language foundation models, the platform precisely predicts catalytic activity, thermostability, and substrate specificity—rapidly identifying high-potential mutants, significantly improving yield and productivity, and reducing production costs.

  • Structure-Activity Optimization

    AI combined with molecular dynamics simulation enables structural modeling and functional prediction of enzyme proteins, broadening enzymatic properties and application boundaries.
  • Catalytic Enhancement

    Rapidly optimizes catalytic activity, thermostability, and substrate specificity to improve yield and productivity.
  • Process Guidance

    Precisely predicts in vitro degradation risks to guide mutagenesis and process optimization.
  • Design Breakthrough

    The platform transitions from random mutagenesis to rational design, reducing experimental workload by over 50%.
  • Industrial Translation

    Integrates computational prediction with wet-lab validation to accelerate the translation of enzyme preparations from lab to industrial-scale applications.
  • Patent Circumvention

    AI generates novel enzyme sequences and modification strategies to effectively circumvent existing patent barriers.

zyme.png

SolnZyme™
Enzyme Engineering Platform

SolnZyme™
Enzyme Engineering Platform

Algorithm-Powered Evolution.
Precision Engineering for Next-Generation Enzymes.

Integrating AI with molecular dynamics simulations, SolnZyme™ enables intelligent structural design and functional prediction of enzyme proteins. Powered by a physics engine and protein language foundation models, the platform precisely predicts catalytic activity, thermostability, and substrate specificity—rapidly identifying high-potential mutants, significantly improving yield and productivity, and reducing production costs.

  • Structure-Activity Optimization

    AI combined with molecular dynamics simulation enables structural modeling and functional prediction of enzyme proteins, broadening enzymatic properties and application boundaries.
  • Catalytic Enhancement

    Rapidly optimizes catalytic activity, thermostability, and substrate specificity to improve yield and productivity.
  • Process Guidance

    Precisely predicts in vitro degradation risks to guide mutagenesis and process optimization.
  • Design Breakthrough

    The platform transitions from random mutagenesis to rational design, reducing experimental workload by over 50%.
  • Industrial Translation

    Integrates computational prediction with wet-lab validation to accelerate the translation of enzyme preparations from lab to industrial-scale applications.
  • Patent Circumvention

    AI generates novel enzyme sequences and modification strategies to effectively circumvent existing patent barriers.

zyme.png