This dataset helps predict which amino acids in nanobody sequences directly bind to antigens (these binding sites are called "paratopes"). Knowing the paratope residues is important for understanding how antibodies interact with their targets and for designing better therapeutic nanobodies.
The data is based on solved 3D structures of nanobody-antigen complexes. These structures come from the Protein Data Bank (PDB) and scientific literature. We identified paratope residues by analyzing the contact interfaces between nanobodies and antigens.
The dataset is split into training, validation, and test sets.
CSV files contain these columns:
seq_nanobody: Nanobody amino acid sequenceseq_antigen: Antigen amino acid sequenceparatope: Binary list indicating if each residue is part of the paratope (1) or not (0)antigen_embeddings.pt: precomputed antigen sequence embeddings through ESM-2 (650M)
Model performance is evaluated using:
This dataset helps predict which amino acids in nanobody sequences directly bind to antigens (these binding sites are called "paratopes"). Knowing the paratope residues is important for understanding how antibodies interact with their targets and for designing better therapeutic nanobodies.
The data is based on solved 3D structures of nanobody-antigen complexes. These structures come from the Protein Data Bank (PDB) and scientific literature. We identified paratope residues by analyzing the contact interfaces between nanobodies and antigens.
The dataset is split into training, validation, and test sets.
CSV files contain these columns:
seq_nanobody: Nanobody amino acid sequenceseq_antigen: Antigen amino acid sequenceparatope: Binary list indicating if each residue is part of the paratope (1) or not (0)antigen_embeddings.pt: precomputed antigen sequence embeddings through ESM-2 (650M)
Model performance is evaluated using: