HRGCN+

HRGCN+ predicts physicochemical and biological properties for QSAR modeling in drug discovery by combining molecular graphs and molecular descriptors within a hyperbolic relational graph convolutional network.


Key Features:

  • Integration of Molecular Graphs and Descriptors: Combines molecular graphs with traditional molecular descriptors as inputs to a modified graph neural network.
  • Hyperbolic Relational Graph Convolutional Architecture: Implements a hyperbolic relational graph convolutional network (HRGCN) with modifications to process combined graph and descriptor information.
  • Performance on Drug-Discovery Datasets: Demonstrated superior performance across 11 drug-discovery-related datasets.
  • Enhanced Predictive Power: Incorporating molecular descriptors into graph-based methods increases predictive accuracy and robustness.
  • Noise Resistance: Exhibits anti-noise capabilities to maintain reliable performance on complex or imperfect datasets.
  • Interpretability: Provides interpretative insights at both the atom and descriptor levels to identify contributions to predicted activities.

Scientific Applications:

  • Initial Screening: Predicts compound properties to support initial screening and identification of promising candidates.
  • Lead Optimization: Supports lead optimization by predicting bioactivities and physicochemical properties during compound modification.
  • Mechanistic Interpretation: Uses atom- and descriptor-level interpretability to inform rational design and modification of compounds.

Methodology:

A modified hyperbolic relational graph convolutional network processes molecular graphs enriched with molecular descriptor data.

Topics

Details

Tool Type:
web application
Added:
9/27/2021
Last Updated:
9/27/2021

Operations

Publications

Wu Z, Jiang D, Hsieh C, Chen G, Liao B, Cao D, Hou T. Hyperbolic relational graph convolution networks plus: a simple but highly efficient QSAR-modeling method. Briefings in Bioinformatics. 2021;22(5). doi:10.1093/bib/bbab112. PMID:33866354.

PMID: 33866354
Funding: - Natural Science Foundation of China: LZ19H300001 - National Natural Science Foundation of China: 21575128, 81773632 - Key R&D Program of Zhejiang Province: 2020C03010 - National Key R&D Program of China: 2016YFA0501701, 2016YFB0201700