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Chemistry & ADMET · Swanson et al., Stanford

ADMET-AI

Predicts 52 small-molecule ADMET endpoints simultaneously using Chemprop D-MPNN ensembles.

What ADMET-AI is

ADMET-AI is a property prediction tool developed by Swanson and colleagues at Stanford. It calculates 52 absorption, distribution, metabolism, excretion, and toxicity (ADMET) endpoints simultaneously from small-molecule chemical structures. By computing these properties together, it enables researchers to review a candidate's complete pharmacological and safety profile at an early stage.

To assist interpretation, every predicted value is displayed alongside a reference distribution showing where the candidate falls relative to approved pharmaceuticals. The tool also supports evaluating chemical series to provide ranked comparisons across multiple analogues.

How it works

Each of the 52 evaluated endpoints is modelled using an ensemble of Chemprop directed message passing neural networks (D-MPNN). The neural network architectures operate directly on molecular graphs derived from chemical SMILES inputs.

The ensembles are trained on experimental measurements curated from the Therapeutics Data Commons. During inference, predicted values are paired with an interpretation benchmarked against profiles of approved drugs.

Key facts

Version
2.0.1
Architecture
Chemprop D-MPNN ensemble
Training data
Therapeutics Data Commons
Input modality
Small molecule (SMILES)
Hardware requirement
Runs on CPU

What you can use it for

Comprehensive liability screening
Screen novel chemical structures simultaneously across 52 ADMET assays, including hERG cardiotoxicity, clearance, solubility, and Tox21 toxicity panels.
Benchmarking against approved drugs
Contextualise the pharmacokinetic and safety properties of an uncharacterised lead by comparing its predicted metrics against distributions observed in approved drugs.
Chemical series ranking
Evaluate a collection of analogue molecules together to generate a ranked comparative profile across all ADMET endpoints.

Run it here

No installation and no GPU of your own: fill in the inputs and it runs on our servers. Results stay in your browser unless you sign in.

Runs on On-demand CPU

Runs on our servers with on-demand compute. A first run needs time to load the model; active capacity can be reused and scales down when idle.

Run this model

ADMET-AI

Canonical SMILES for the small molecule.

Needs ligand smiles

Strengths and limits

Good at

  • Predicts 52 absorption, distribution, metabolism, excretion, and toxicity endpoints in a single run.
  • Contextualises predictions by showing where candidate values sit relative to approved drugs.
  • Supports ranked comparative analyses across compound series.
  • Executes on standard CPU hardware without requiring GPU acceleration.

Watch out for

  • Restricted to small-molecule representations that can be supplied as SMILES strings.
  • Predictions are constrained to the 52 endpoints represented in the underlying Therapeutics Data Commons training sets.

Inputs and outputs

You provide

  • Ligand SMILES

    Canonical SMILES for the small molecule.

  • Reportoptional

You get back

  • All endpoints with predicted value and interpretation.

Licence

Commercial use permitted · MIT

The MIT licence allows use in commercial research and products.

Questions

Can I use ADMET-AI commercially?

Commercial use permitted. The MIT licence allows use in commercial research and products.

How do I run ADMET-AI without installing anything?

Use the form under “Run it here” on this page: fill in the inputs and press Run model. It runs on our servers, typically in 3.0s, and a run costs about 6 credits. Visitors without an account get 1,000 credits a month.

How are the predicted values contextualised?

Each predicted property is reported alongside an interpretation indicating where the query molecule ranks relative to values observed across approved therapeutics.

What underlying architecture is used?

Each endpoint is modelled using an ensemble of Chemprop directed message passing neural networks (D-MPNN) trained on datasets from the Therapeutics Data Commons.

Can the model compare several compounds at once?

Yes, supplying a chemical series generates a ranked comparative evaluation across the evaluated candidates.

Written from ADMET-AI's own documentation. Statements citing a figure that does not appear there are removed before publication. Licence and running details come from our registry.