CarbonAI®

CarbonAI® is a de novo small-molecule and PROTAC AI design engine capable of screening billions of compounds in mere days, simultaneously optimizing multiple pharmacological properties for lead generation and optimization. It delivers 50 candidates in 3 iterations for wet-lab testing, with milestone success achieved.

Small Molecule Design Engine

Lead Generation

Scaffold Hopping de novo Generation
Lead Optimization Analog Expansion
PROTAC de novo Generation

Lead Optimization

ADME(Absorption, Distribution, Metabolism, Excretion) Prediction
Toxicity Prediction
DMPK Prediction

Target Binding Optimization

Protein Binding Specificity Optimization
Target Binding Pocket Detection
Molecular Docking

Off-Target Prediction

Compound Off Target Toxicity Prediction

Application Scenarios:

Target Selectivity Optimization
Multiple Pharmacology Profile Optimization
Chemical Reagent Property Optimization

Project Lifecycle

Step 1:
NDA & Project Assessment

Step 2:
Statement of Work & Quote

Step 3:
Sign Contract & Invoice

Step 4:
Upfront Payment &
Target Information for Project Kick-Off

Step 5:
Antibody Designed, Expressed, and Tested

Step 6:
Project Delivered & Milestone Payment

Platform Demos

CarbonAI®
Frequently Asked Questions (FAQs)

What design approaches does CarbonAI® offer, and when should I choose each one?
Design approach How it works When to choose it
Scaffold-hopping de novo lead generation Explores 10⁷–10⁹ molecules and proposes 10–100 novel chemotypes.
No 3-D structure required.
When you have no starting hits or want new IP space.
Lead-optimization / analog expansion AI refines existing hits for potency, selectivity, ADME/Tox, and developability. When you already have hits but need a better profile.
PROTAC de novo design Builds bifunctional degraders and ranks them for ternary-complex stability. When you aim to degrade a disease-relevant protein.
Target-binding & off-target optimization Predicts binding and off-target liability; performs rapid docking. Use throughout the project for balanced efficacy and safety.
  • Computational design round: ~1–2 weeks (often < 1 week for urgent screens).
  • Compound synthesis & QC: ~2 weeks for 5–10 priority candidates.
  • In‑vitro potency & ADME/Tox assays: 1–2 weeks, often parallel with synthesis.
  • Full design–build–test cycle: ≈ 1–2 months overall, depending on iterations.

*Timelines can overlap to shorten total project duration.

Item What’s included Batch size Timeline*
Computational design De novo or lead-optimization; ranked list with predicted potency, selectivity, ADME/Tox. ~1 week
Compound synthesis Route design, synthesis ≥ 95% purity, analytical QC. Up to 10 compounds ~2 weeks
ADME / Tox profiling hERG, CYP panel, solubility, stability, permeability + wet-lab confirmation. Matches set 1 week
Biochemical / cell assays IC₅₀/Kᵢ or cellular potency; off-target panel if requested. Matches set 1–2 weeks

*Runs overlap whenever feasible.

  • For scaffold‑hopping / PROTAC design:
    • Target identifier (UniProt or sequence).
    • Desired mechanism of action & assay readout.
    • Optional: pocket residues, preferred E3 ligase (for PROTAC).
  • For lead optimization / analog expansion:
    • Structures or SMILES of existing hits + potency data.
    • Optional: crystal/cryo‑EM pose, in‑vivo PK info.
  • For all projects:
    • Signed NDA and project scope with potency/ADME/Tox thresholds.
    • Optional: competitive landscape or FTO constraints.
  • Digital package – SMILES/SDF files, predicted properties, docking poses, ranked tables.
  • Physical material (optional) – Purified compounds (1–10 mg) with CoA and assay reports.
  • Summary report – Experimental vs. predicted performance and next‑round recommendations.

No. CarbonAI® can work from sequence alone, learning pocket flexibility directly from primary sequence. A high‑resolution structure improves docking accuracy but is not mandatory.

  • Filters generated molecules against public and proprietary patent databases.
  • Scores similarity against claimed scaffolds and flags potential overlaps.
  • Suggests alternative chemotypes if conflicts are detected.

No. Ainnocence’s discovery platform is a proprietary, sequence-based AI system developed entirely in-house. By working directly from primary sequence data, it eliminates the need for external 3-D structure-prediction software and other open-source packages. Instead, our technology performs ultra-high-throughput virtual screening and multi-objective optimisation, evaluating up to 10¹⁰ candidates within hours to days—giving our partners capabilities that off-the-shelf tools cannot match.

Interested in how we can support your goals? We’re here to answer any inquiries.