LitPathExplorer

LitPathExplorer extracts and organizes literature-derived events and assigns confidence scores using text mining and semi-supervised learning to support pathway model exploration and curation.


Key Features:

  • Automated Event Extraction: Automatically extracts events (statements) from published literature that are relevant to existing pathway models.
  • Confidence Scoring: Assigns a confidence value to each extracted event based on linguistic features and article metadata.
  • Semi-Supervised Learning: Applies semi-supervised learning algorithms to refine extraction models, with reported precision improvements from 61–73% to up to 95% with user involvement.
  • Interactive Visualization: Visualizes pathway models enriched with literature-derived events to support exploration.
  • Precision and Recall Metrics: Reports event extraction precision of 89% and recall of 71%.

Scientific Applications:

  • Pathway Model Curation: Facilitates curation and updating of pathway models by supplying literature-derived evidence for model components and interactions.
  • Discovery of Novel Events: Identifies novel biological events reported in the literature for potential incorporation into pathway models.
  • Confidence-Based Analysis: Enables prioritization of extracted events for curation and review based on assigned confidence scores.

Methodology:

Uses text mining techniques and semi-supervised learning algorithms to extract events from scientific literature and organizes extracted events by confidence level; methodology was validated by quantitative evaluations reporting 89% precision and 71% recall.

Topics

Details

Tool Type:
web application
Operating Systems:
Linux, Windows, Mac
Added:
6/24/2018
Last Updated:
11/25/2024

Operations

Publications

Soto AJ, Zerva C, Batista-Navarro R, Ananiadou S. LitPathExplorer: a confidence-based visual text analytics tool for exploring literature-enriched pathway models. Bioinformatics. 2017;34(8):1389-1397. doi:10.1093/bioinformatics/btx774. PMID:29228271.

PMID: 29228271
Funding: - Defense Advanced Research Projects Agency: DARPA-BAA-14-14 - Engineering and Physical Sciences Research Council: EP/1038099/1

Documentation