biotech Deep-Interact Studio

Sequence-based molecular interaction modeling

Deep-Interact Studio

Build, train, compare, and apply deep learning models that predict protein, drug, and RNA interactions from biological sequence data, with no code required.

  • Three interaction builders
  • Live training metrics
  • Downloadable models and predictions

Choose an interaction model

Each builder turns your sequence pairs into embeddings, trains a configurable classifier, and gives you metrics, predictions, and reusable model files.

Protein-Protein Interaction structure

PPI

Protein-Protein Interaction

Predict whether two proteins physically interact using sequence-derived protein language model embeddings.

  • Input: protein A sequence and protein B sequence
  • Encoder: ESM2 protein embeddings
  • Output: interaction probability and trained classifier
hub Open PPI builder arrow_forward
Drug-Target Protein Interaction structure

DTPI

Drug-Target Protein Interaction

Model potential binding between a compound and a protein target from SMILES and target sequence features.

  • Input: SMILES string and protein sequence
  • Encoder: ChemBERTa plus ESM2
  • Output: binding probability and ranked predictions
medication Open DTPI builder arrow_forward
RNA-Protein Interaction structure

RPI

RNA-Protein Interaction

Detect RNA-protein associations by combining RNA language model features with protein embeddings.

  • Input: RNA sequence and protein sequence
  • Encoder: RNA-FM plus ESM2
  • Output: interaction probability for RNA-protein pairs
genetics Open RPI builder arrow_forward

From molecular pairs to predictions

Task-specific encoders, configurable neural classifiers, asynchronous GPU jobs, model comparison, and batch inference in one research workflow.

  1. 1

    Prepare Pairs

    Upload a CSV of protein, compound or RNA pairs with 0/1 labels.

  2. 2

    Build Model

    Select embeddings, layer structure, dropout, activation, and training settings.

  3. 3

    Train and Compare

    Track loss, accuracy, precision, recall, F1, ROC-AUC, and PR-AUC across runs.

  4. 4

    Run Inference

    Apply trained models to new molecular pairs and export prediction tables.