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.
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.