OSML

OSML predicts protein-ligand binding sites using a query-driven dynamic machine learning framework that constructs per-query training sets from an annotated base dataset to incorporate rapidly generated annotated biological data.


Key Features:

  • Dynamic Learning Framework: Employs a query-driven dynamic learning model that dynamically generates a training set based on each query input.
  • Query-Driven Model Construction: Selects a smaller, highly relevant subset from an extensive annotated base dataset for each query, exemplifying the "part could be better than all" phenomenon and improving generalization.
  • Enhanced Scalability and Flexibility: Supports flexible updates to the annotated base dataset and scales to large datasets through per-query training-set construction.
  • Superior Performance: Demonstrated by computer experiments on 10 different ligand types across three hierarchically organized levels, outperforming most existing predictors in protein-ligand binding-site prediction.

Scientific Applications:

  • Computational Biology: Improves prediction of protein-ligand interactions by leveraging dynamically constructed models that incorporate rapidly accumulating annotated biological data.
  • Drug Discovery: Facilitates identification and assessment of ligand-binding sites to support development of therapeutic agents.

Methodology:

OSML constructs a per-query training set by selecting a relevant subset from an annotated base dataset and trains a query-driven dynamic learning model; performance was evaluated via computer experiments on 10 ligand types across three hierarchically organized levels.

Topics

Details

Tool Type:
web application
Operating Systems:
Linux, Windows, Mac
Added:
8/3/2017
Last Updated:
11/25/2024

Operations

Publications

Dong-Jun Yu, Jun Hu, Qian-Mu Li, Zhen-Min Tang, Jing-Yu Yang, Hong-Bin Shen. Constructing Query-Driven Dynamic Machine Learning Model With Application to Protein-Ligand Binding Sites Prediction. IEEE Transactions on NanoBioscience. 2015;14(1):45-58. doi:10.1109/tnb.2015.2394328. PMID:25730499.

Documentation

Links