AlphaDock OS Structure & Affinity Studio
Structure and affinity evidence studio

Docking evidence
for target-to-lead
decisions.

AlphaDock OS is the structure and affinity workbench inside Bayes Pharma.ai Discovery. It connects target context, structure hierarchy, AlphaFold-guided docking, AutoDock Vina pose output, ADMET triage, AI explanation, verifier notes, and reviewable decision dossiers.

AlphaFold + Vina evidence Verifier and provenance layer AI explanation ADMET triage PK/PD handoff

4
Evidence Modes
3D
Pose Inspection
ADMET
Developability Triage
QC
Decision Dossier
Target Context Structure Hierarchy Pocket Review AutoDock Vina Method Agreement ADMET Flags Synthesis Handoff Decision Dossier
Where AlphaDock fits

Structure evidence inside the Bayes Pharma.ai Discovery workflow

AlphaDock sits in the target-to-lead sequence as the structure, pose, ADMET, and confidence layer feeding the same decision record.

Inputs

What enters AlphaDock

  • Target rationale from Discovery evidence graph
  • Experimental structure when available
  • AlphaFold structure when experimental structure is absent
  • Ligand SMILES and analog context
  • Pocket assumptions and docking-box review
  • Boltz-2 complex prediction worker as roadmap input
Open Discovery workflow
Outputs

What leaves AlphaDock

  • Binding estimate and method interpretation
  • Ranked Vina poses and 3D inspection state
  • ADMET and drug-likeness risk flags
  • AI explanation with scientific cautions
  • Next experiment and synthesis handoff notes
  • MD/FEP validation dossier after QC gates
Open workbench
01Target contextDisease biology, target rationale, safety, tractability, and competitive evidence.
02Structure hierarchyExperimental PDB first, AlphaFold next, Boltz-style complex prediction as roadmap.
03Pocket reviewBinding site, cofactors, metals, waters, protonation state, and docking box assumptions.
04Docking evidenceAlphaFold-guided prediction, enhanced ML triage, Vina pose output, and consensus spread.
05ADMET checkLipinski, hERG, developability, and property flags before analog prioritization.
06Verifier notesExpose uncertainty, applicability, method disagreement, and experimental validation needs.
07Decision dossierPackage evidence for synthesis, PK/PD translation, assay planning, or stop/go review.
Physics stack

Use physics as reviewable evidence

Open workflows can use open parameterization paths, while commercial force fields are positioned as licensed integration paths when applicable.

OpenFF Sage / GAFF

Open ligand parameterization paths for prepared small-molecule simulation and review workflows.

Open Ligands

AMBER / CHARMM

Protein, peptide, membrane, and biomolecular simulation options when system preparation is controlled.

Biomolecules

OPLS4

Position as a licensed integration path where the customer has the appropriate rights and environment.

Licensed Path
Decision dossier

Every run becomes a reviewable evidence package

AlphaDock preserves what was run, why it was run, what the model assumed, where methods disagree, and what next experimental question follows.

Binding evidence

Affinity estimate, interpretation, pose rank, method spread, and source method are shown together instead of as an isolated score.

Pose confidence

3D inspection, pose source, docking box assumptions, and receptor-preparation caveats stay visible for reviewer challenge.

ADMET flags

Lipinski, hERG, property risk, and developability indicators help decide whether docking evidence is actionable.

Method agreement

Compare mode exposes consensus and disagreement between AlphaFold-guided, enhanced ML, and Vina evidence.

Assumptions and cautions

Hypothesis-generating boundaries, pocket selection, cofactors, protonation, water handling, and validation needs remain explicit.

Next handoff

Send prioritized compounds into synthesis feasibility, assay planning, lead optimization, or PK/PD translation.

Scientific boundary

Make the limits visible before users trust the result.

Docking and ML estimates are useful for prioritization, but decision-grade use requires structure preparation, reviewer challenge, and experimental validation.

Supported today

AlphaFold-guided prediction, enhanced ML scoring, real AutoDock Vina pose output, ADMET triage, AI explanation, and NGL pose inspection.

Requires reviewer control

Pocket selection, protonation state, cofactors, metals, structural waters, docking box dimensions, assay context, and analog-series relevance.

Not a final answer

Outputs are hypothesis-generating and do not replace medicinal chemistry review, assay confirmation, MD/FEP validation where needed, or development-team judgment.

Step 01 · Choose analysis

Select the evidence model for this question

Use Vina for real pose output. Compare mode can blend AlphaFold, Enhanced ML, and Vina evidence.

AlphaFold docking

Target-aware prediction using existing AlphaFold endpoint.

Structure required
Protein targetUniProt ID or amino-acid sequence
Ligand chemistryCanonical or isomeric SMILES
Docking results are hypothesis-generating and require experimental validation.

Binding evidence

Affinity estimate, interpretation, pose files, and diagnostics.

kcal/mol
Ready for a docking run

Select a mode, review target and ligand inputs, then run the prediction.

ADMET and drug-likeness

Evaluate Lipinski properties, hERG risk, and overall developability risk for the current ligand.

Discovery risk
Run docking or review the current ligand, then predict ADMET to assess developability.

Synthesis feasibility triage

RDKit synthetic-accessibility score, functional-group disconnection hints, and a purchasable-precursor similarity check for the current ligand.

Live · RDKit
Triage the current ligand for synthetic accessibility, disconnection hints, and route risk.

Open Targets evidence

Live tractability, disease association, safety liability, and known-drug evidence from the public Open Targets Platform API.

Live · Open Targets
Enter a gene symbol or target name and fetch live evidence.

Provenance dossier

Every completed docking, ADMET, and synthesis-triage run in this session is appended to a hash-chained, exportable evidence ledger.

0 records
Run a docking prediction, ADMET screen, or synthesis triage to start this dossier.

Interactive 3D pose viewer

Loads the real AutoDock Vina pose when available; otherwise falls back to sample pose.

Complete a docking run to enable pose inspection.
Drag to rotateScroll to zoomRight-drag to panOpen-source NGL viewer
Pose source: no docking pose loaded yet.
Specialist workers

Models contribute auditable evidence

Use foundation models and biomedical agents as structured workers inside the Discovery record, with confidence, disagreement, and applicability shown beside the result.

Open Targets

Target-disease evidence, tractability, safety, known drugs, and disease biology

Live · Evidence Graph

Boltz-2 Worker

Complex structure and affinity signal for rapid triage, not a final FEP replacement

Structure/Affinity

AiZynthFinder

Retrosynthesis routes, purchasable precursors, policy control, and route confidence

Synthesis

TxGemma

Therapeutic-property specialists for toxicity, BBB, reaction, and explanation tasks

Ensemble

GNINA / DiffDock

Optional pose and scoring workers for method agreement and pose-quality challenge

Docking Ensemble

BioNeMo Infrastructure

GPU-scale biomolecular model infrastructure when fine-tuning or distributed inference is justified

Infrastructure
Roadmap

Build the defensible sequence first

The priority is not more isolated models. It is target context, structure consensus, synthesis feasibility, provenance, and validated learning loops.

Pocket Detection + Consensus Docking

Live grid-based pocket detection (LIGSITE-style) auto-fills the Vina docking box; AlphaFold/Enhanced ML/Vina consensus is available in Compare mode.

Live

Provenance & Benchmarks

Every run is appended to a hash-chained provenance dossier you can inspect and export as JSON.

Live

Synthesis Feasibility Triage

Live RDKit synthetic-accessibility score, disconnection hints, and route-risk rating. Full retrosynthesis search (AiZynthFinder) remains roadmap.

Live

MD Preparation

Run OpenMM or GROMACS only after protein prep, protonation review, ligand parameters, and QC gates.

Next

OpenFE RBFE

Use relative free energy on prepared congeneric series with uncertainty and cycle-closure checks.

Next

Assay Learning Loop

Close the loop with verified assay results, temporal validation, leakage checks, and acquisition strategy.

Next

Peptide Docking

Flexible docking for peptide therapeutics when structure preparation and sampling limits are explicit.

Later

BioNeMo Scale-Out

Adopt GPU-scale biomolecular infrastructure after workloads justify fine-tuning or distributed inference.

Later
Operating model

Move from isolated docking to a reviewable evidence workflow

The differentiator is traceability: every score carries source context, assumptions, uncertainty, reviewer cautions, and downstream action.

Decision need Point-tool pattern AlphaDock evidence workflow
Structure choiceOne receptor model is often used without enough context.Experimental PDB, AlphaFold, and roadmap complex-prediction sources are separated and labeled.
Pose evidenceDocking score is exported as a standalone result.Affinity, pose rank, method, docking box, and viewer state remain in one dossier.
Method agreementDifferent scoring methods are compared manually.Compare mode can expose AlphaFold-guided, enhanced ML, and Vina agreement or spread.
Developability contextADMET is checked in a separate workflow.ADMET and drug-likeness flags sit beside docking evidence before prioritization.
Scientific challengeAssumptions may live in notes or slides.Pocket, protonation, cofactors, waters, and experimental validation needs stay visible.
HandoffResults move by screenshots or copied tables.Evidence can feed synthesis feasibility, lead optimization, assay planning, and PK/PD translation.
AlphaDock OS is for hypothesis generation, prioritization, and reviewable evidence preparation. Decision-grade use requires appropriate structure preparation, assay confirmation, medicinal chemistry review, and experimental validation.
TRACEABILITY FIRST

The strongest page is the one reviewers can challenge.

Assay-driven learning loop

Learning only matters when the evidence is controlled

Prediction feedback enters a versioned learning loop after assay results are verified, leakage checks are complete, and the acquisition strategy is reviewable.

  • Records assay provenance
  • Tracks dataset versions
  • Prevents temporal leakage
  • Shows acquisition rationale
Evidence control Use only verified experimental feedback for model updates
QCVerifier before retraining
Assay
Verified source
Model
Versioned update

What is now real in this workflow

Vina mode uses the latest AlphaFold PDB URL, prepares receptor and ligand files, runs AutoDock Vina, returns ranked poses, and exposes the real generated pose to NGL.

AlphaFold sourceUses current AlphaFold DB metadata instead of hardcoded model versions.
Rigid receptorReceptor PDBQT cleanup removes ligand-style ROOT/BRANCH tags.
Pose outputGenerated out.pdbqt and converted pose.pdb are available for inspection.
Physics and licensing boundary Use open force-field paths by default and describe commercial force fields only as licensed integrations where appropriate.

Scientific caution

The default auto-centered box is useful for a technical run but not enough for production biology. Decision-grade use requires pocket selection, protonation control, cofactors/metals, waters, and experimental validation.

Hypothesis-generating boundary Use docking evidence for prioritization and challenge; require assay confirmation before medicinal chemistry or development decisions.

Build a reviewable pose-evidence dossier.

Start with a target and ligand, inspect binding evidence, capture ADMET flags, and route the package into the next Discovery decision.

Open workbench View Discovery workflow Open cheminformatics
Outputs are hypothesis-generating and require scientific review.