TinGa
TinGa models developmental trajectories in single-cell transcriptomics using the Growing Neural Gas algorithm for trajectory inference of cell developmental dynamics.
Key Features:
- Algorithm: Uses the Growing Neural Gas algorithm to represent and infer developmental trajectories from single-cell transcriptomic data.
- Topology handling: Handles a wide spectrum of trajectory topologies, from simple linear structures to intricate disconnected graphs.
- Benchmarking: Evaluated across 250 diverse datasets, including both synthetic and real data.
- Comparative performance: Demonstrated superior accuracy relative to five state-of-the-art trajectory inference methods in the provided comparisons.
- Computational efficiency: Exhibited the fastest execution times among the compared methods in the reported benchmarks.
- Implementation: Implemented in R.
- Visualization: Results can be visualized using the dynplot package.
Scientific Applications:
- Trajectory inference (TI): Inferring developmental trajectories from single-cell RNA-seq datasets.
- Modeling cell dynamics: Modeling cell developmental dynamics across diverse biological contexts and dataset complexities.
- Large-scale studies: Applicable to large-scale single-cell studies where execution time and scalability are important considerations.
Methodology:
Trajectory inference using the Growing Neural Gas algorithm; benchmarking on 250 synthetic and real datasets with comparisons to five state-of-the-art TI methods; implemented in R and compatible with visualization via dynplot.
Topics
Collections
Details
- Added:
- 9/3/2020
- Last Updated:
- 9/3/2020
Operations
Publications
Todorov H, Cannoodt R, Saelens W, Saeys Y. TinGa: fast and flexible trajectory inference with Growing Neural Gas. Bioinformatics. 2020;36(Supplement_1):i66-i74. doi:10.1093/bioinformatics/btaa463. PMID:32657409. PMCID:PMC7355244.