ThorAxe
ThorAxe constructs evolutionary splicing graphs to analyze conservation of alternative splicing (AS) across multiple species and assess its impact on protein function.
Key Features:
- Evolutionary Splicing Graphs: Generalizes splicing graphs to capture whole-transcript variability across species with nodes defined as minimal transcript building blocks conserved across organisms.
- Parsimonious Representation: Builds parsimonious evolutionary splicing graphs that minimize redundancy while preserving essential transcript variations.
- Functional Relevance and Conservation Analysis: Identifies links between functional relevance, tissue-specific regulation, and conservation of AS events across sets of genes.
- Scalability: Scales analyses to the entire human protein-coding genome and identifies thousands of genes where alternative splicing modulates the number and composition of pseudo-repeats.
Scientific Applications:
- Evolutionary Biology: Enables study of conservation and diversification of gene expression mechanisms across species at the transcript level.
- Genetics and Medicine: Supports linking AS events and tissue-specific regulation to genetic variation relevant for disease and therapeutic outcomes.
- Transcriptomics: Facilitates exploration of transcript variability and the regulatory roles of alternative splicing.
Methodology:
Builds evolutionary splicing graphs by defining nodes as minimal transcript building blocks conserved across species and applies this framework at scale to the human protein-coding genome.
Topics
Details
- License:
- MIT
- Programming Languages:
- Python
- Added:
- 1/18/2021
- Last Updated:
- 2/27/2021
Operations
Publications
Zea DJ, Laskina S, Baudin A, Richard H, Laine E. Assessing Conservation of Alternative Splicing with Evolutionary Splicing Graphs. Unknown Journal. 2020. doi:10.1101/2020.11.14.382820.