Nanobody (VHH) Affinity Prediction Dataset
0
3 commits
1 linked in READMEs
updated May 1, 2025
This dataset helps predict the binding affinity between nanobodies (VHH, single-domain antibodies from camelids) and their target antigens. Affinity is a key parameter that measures how strongly an antibody binds to its antigen, usually expressed as dissociation constant (KD) or binding free energy.
High affinity is a critical property for therapeutic antibodies, so accurately predicting nanobody affinity is important for antibody engineering and screening.
The dataset is based on experimentally measured nanobody-antigen binding affinities. Data is collected from published literature and split based on clustering (sequence similarity).
The dataset is split into training, validation, and test sets.
CSV files contain these columns:
seq: Nanobody amino acid sequencescore: Affinity value (typically -log10(KD) where KD is in M), higher values indicate stronger binding affinityModel performance is evaluated using:
Nanobody (VHH) Affinity Prediction Dataset
0
3 commits
1 linked in READMEs
updated May 1, 2025
This dataset helps predict the binding affinity between nanobodies (VHH, single-domain antibodies from camelids) and their target antigens. Affinity is a key parameter that measures how strongly an antibody binds to its antigen, usually expressed as dissociation constant (KD) or binding free energy.
High affinity is a critical property for therapeutic antibodies, so accurately predicting nanobody affinity is important for antibody engineering and screening.
The dataset is based on experimentally measured nanobody-antigen binding affinities. Data is collected from published literature and split based on clustering (sequence similarity).
The dataset is split into training, validation, and test sets.
CSV files contain these columns:
seq: Nanobody amino acid sequencescore: Affinity value (typically -log10(KD) where KD is in M), higher values indicate stronger binding affinityModel performance is evaluated using: