Model Development
Developing task-specific predictive models for biomolecular sequences, structures, and interaction data.
We build a computational R&D platform spanning protein–small-molecule virtual screening, binding-affinity prediction, antibody sequence optimization, structural design, candidate generation, and multi-stage prioritization.
Using computation to shorten the path from candidate discovery to validation.
We focus on artificial intelligence, computational biology, and structure-guided drug discovery, building an intelligent R&D platform for protein–small-molecule screening, antibody design, and protein engineering.
The platform integrates sequence models, molecular graph neural networks, three-dimensional structural representations, molecular docking, and dynamics evaluation. It supports candidate generation, scoring, screening, optimization, and risk assessment for research collaborations and drug-discovery programs.
Developing task-specific predictive models for biomolecular sequences, structures, and interaction data.
Reducing candidate space through multi-stage computational screening to improve downstream experimental efficiency.
Conducting multi-objective optimization of affinity, specificity, stability, and developability.
From protein pockets to antibody sequences, and from candidate generation to prioritization.
We screen ultra-large compound libraries against target protein pockets by integrating molecular fingerprints, graph neural networks, structural scoring, and molecular docking to identify high-potential compounds.

For antibody discovery and optimization, we support sequence generation, CDR mutation design, structural prediction, affinity ranking, and developability assessment.

We predict and design protein stability, binding capacity, and functional properties using sequence, structural, and evolutionary information.

We combine protein sequences, ligand graphs, pocket structures, and experimental labels to build predictive models with improved generalization.

We perform early assessment and prioritization of toxicity, ADME, specificity, and drug-likeness risks.

Modular capabilities for different stages of drug discovery.
Protein language models, antibody sequence modeling, mutation-effect prediction, and generative design.
Protein-pocket identification, complex modeling, geometric graph learning, and structural quality assessment.
Batch processing, model inference, filtering, and ranking for large candidate libraries.
Balancing affinity, specificity, stability, and drug-likeness.
Browse representative publications covering antibody design, protein–small-molecule prediction, virtual screening, peptide generation, toxicity prediction, and molecular dynamics.
Publication titles and bibliographic information are presented directly on this website.
We welcome collaborations in protein-target screening, antibody optimization, protein engineering, model development, and candidate prioritization.