From research intent to molecular design.

Connect target understanding, molecular design and multi-property evaluation across protein, antibody and peptide research, bringing computation and experiments into candidate exploration.

AI CRO service framework

Choose by stage: intelligently designed molecules, or experimentally validated candidates.

  • Mode 1: AI-driven dry-lab CRO service

    2–4 weeks

    AI-driven dry-lab CRO serviceMode 1 · delivers intelligently designed future molecules

    Over 90%

    Cost reductionMode 1 · vs the conventional design–screen cycle

    Core value

    • Fast, low-cost explorationComplete in weeks the design–screen cycle that takes conventional methods years and millions of dollars.
    • Beyond known chemical spaceFind new, high-potential molecular entities beyond the reach of human experience.
    • Zero-risk startTest several targets or design ideas for a very low initial outlay, and commit to costly experiments only once the best molecules are in hand.
  • Mode 2: AI-driven end-to-end early research service

    6–8 weeks

    AI-driven end-to-end early research serviceMode 2 · target to PCC, delivers experimentally validated candidates

    Over 70%

    Wet-lab cost and time reductionMode 2 · vs conventional wet-lab work

    Core value

    • One team, end to endWork with a single team to manage the whole path from concept to PCC.
    • Quality, speed and cost in balanceAI design sharply cuts the number of molecules to synthesize and test (possibly from thousands to dozens), compressing conventional wet-lab cost and time by over 70%.
    • Controlled risk, a clear pathA fixed total price or staged payments make R&D spending more predictable.

Early research, end to end

Original RL-based target identification, combined with frontier science and clinical R&D experience, covers the whole of early drug research: target discovery, clinical subtyping, molecular design with simultaneous multi-property optimization, and druggability assessment.

  • Hit & Lead Target discovery to Virtual screening
  • PCC & IND Molecule optimization to Evidence integration
  1. Target discovery
  2. Target validation
  3. Clinical subtyping
  4. Molecule generation
  5. Virtual screening
  6. Molecule optimization
  7. Druggability assessment
  8. Evidence integration
  9. Clinical trials

Dynamic database

  • Literature and patents
  • Omics and pathway annotation
  • GWS genetic data
  • Wet-lab data
  • Other public data

Memory

More than molecular designTarget validationClinical subtypingSimultaneous multi-property optimization

Research scope, experimental plans and deliverables are defined for each project.

Technical solutions by molecule type

From antibodies and peptides to conjugates and functional proteins, design, evaluation and research collaboration organized around each molecule type.

Antibodies / recombinant proteins

Monoclonal and multispecificVHHFab, scFv, Fc fusionsMulti-target antibodiesFusion proteins

Antibody sequence design

  • Target optimization and epitope discovery
  • Antibody generation from target structure
  • Antibody structure prediction and screening
  • pH-sensitivity design
  • Affinity and activity assessment

Antibody optimization

  • Simultaneous multi-property optimization: affinity, stability, activity, immunogenicity and more
  • Pharmacokinetic optimization
  • Side-chain modification
  • Druggability and developability optimization

Antibody evaluation

  • Antibody–target binding function
  • Antibody structure quality
  • Specificity, internalization and more

VHH and fusion proteins

  • VHH sequence design
  • CDR optimization
  • Fc-VHH fusion sequence design
  • Developability optimization and druggability screening

Disease areas

  • Breast cancer
  • Gastric cancer
  • Lung cancer
  • Prostate cancer
  • Alzheimer's

Antibody engineering meets generative design

From sequence engineering to generative methods, antibody research continues to expand its design space. AI offers new ways to study structure, function and developability together.

  1. Sequence research

    Explore antibody sequence design in relation to target recognition and molecular function.

  2. Framework optimization

    Study framework and variable-region relationships in antibody humanization and functional retention.

  3. Structural understanding

    Connect amino-acid sequence and conformation to analyze molecular interactions.

  4. Multi-property assessment

    Consider binding, stability and developability in design trade-offs.

  5. Generative design

    Explore antibody candidates with generative models and multi-property assessment.

    AI research

Consulting

Business inquiries: Ms. Shen, email bd@molpeai.com. Share your research objectives and current stage to shape the right collaboration.