DeepLGF

DeepLGF predicts drug-drug interactions by integrating a biomedical knowledge graph (BKG) with fused local features—chemical semantics from drug sequences via natural language processing and biological embeddings from a Biomedical Functional Graph Neural Network (BFGNN)—and global features from knowledge graph embedding methods.


Key Features:

  • Biomedical Knowledge Graph Integration: Leverages a biomedical knowledge graph (BKG) to provide comprehensive drug- and biology-related relational context.
  • Chemical local information extraction (NLP): Extracts chemical semantics from drug sequences using natural language processing techniques.
  • Biological local embeddings (BFGNN): Derives biological local information and embeddings via a Biomedical Functional Graph Neural Network (BFGNN) learning from various functional spaces.
  • Global feature extraction (knowledge graph embeddings): Obtains global drug interaction context using knowledge graph embedding methods applied to the BKG.
  • Local–Global Feature Fusion: Combines local and global features to capture specific chemical/biological signals and overarching relational patterns.
  • Aggregation methods: Implements four distinct aggregating methods to fuse local and global feature sets.
  • Deep neural network prediction: Uses aggregated features as input to a deep neural network for training and DDI prediction.

Scientific Applications:

  • Multi-task DDI prediction: Evaluated across three distinct drug-drug interaction prediction tasks.
  • Comparative evaluation: Demonstrated superior capability compared to other computational methods in DDI prediction.
  • Case studies in high-priority therapeutics: Applied to case studies involving cancer-related drugs and COVID-19-related drugs to identify critical interactions.

Methodology:

DeepLGF extracts chemical local information from drug sequences using natural language processing, derives biological local embeddings via a Biomedical Functional Graph Neural Network (BFGNN) learning from various functional spaces, extracts global features using knowledge graph embedding methods on the BKG, fuses features via selected aggregation methods, and trains a deep neural network for prediction.

Topics

Details

License:
Not licensed
Cost:
Free of charge
Tool Type:
command-line tool, web application
Operating Systems:
Mac, Linux, Windows
Programming Languages:
Python
Added:
10/31/2022
Last Updated:
11/24/2024

Operations

Publications

Ren Z, You Z, Yu C, Li L, Guan Y, Guo L, Pan J. A biomedical knowledge graph-based method for drug–drug interactions prediction through combining local and global features with deep neural networks. Briefings in Bioinformatics. 2022;23(5). doi:10.1093/bib/bbac363. PMID:36070624.

PMID: 36070624
Funding: - Science and Technology Innovation 2030-New Generation Artificial Intelligence Major Project: 2018AAA0100103 - National Natural Science Foundation of China: 61722212, 62002297, 62072378, 62172338 - Neural Science Foundation of Shanxi Province: 2022JQ-700

Documentation

Links