GimmeMotifs

GimmeMotifs predicts transcription factor binding motifs de novo from ChIP-seq datasets to identify enriched sequence motifs for analysis of gene regulatory mechanisms.


Key Features:

  • Ensemble Methodology: Integrates multiple computational algorithms to predict motifs de novo from ChIP-seq datasets.
  • WIC Similarity Scoring: Employs a weighted information content (WIC) similarity score to compare redundant motifs and facilitate clustering.
  • Iterative Clustering: Uses an iterative procedure to group closely related motifs based on similarity scores.
  • Comprehensive Output Reports: Produces detailed reports that include multiple evaluation metrics for comparing and assessing predicted motifs.
  • Benchmark Performance: Has been benchmarked on human and mouse ChIP-seq datasets to evaluate effectiveness across species.

Scientific Applications:

  • Transcription factor binding site discovery: Identification of enriched transcription factor binding motifs from ChIP-seq data.
  • Gene regulatory mechanism analysis: Characterization of motifs to support studies of transcriptional regulation and regulatory networks.
  • Target identification: Prioritization of candidate regulatory elements and potential targets for downstream experimental validation.
  • Evolutionary conservation studies: Comparative analysis of motif occurrences across species such as human and mouse.

Methodology:

Integrates multiple motif-prediction algorithms, computes weighted information content (WIC) similarity scores to compare and iteratively cluster redundant motifs, generates evaluation metrics in output reports, and benchmarks results on human and mouse ChIP-seq datasets.

Topics

Details

License:
MIT
Maturity:
Mature
Tool Type:
workflow
Operating Systems:
Linux
Programming Languages:
Python
Added:
1/13/2017
Last Updated:
11/25/2024

Operations

Publications

van Heeringen SJ, Veenstra GJC. GimmeMotifs: a <i>de novo</i> motif prediction pipeline for ChIP-sequencing experiments. Bioinformatics. 2010;27(2):270-271. doi:10.1093/bioinformatics/btq636. PMID:21081511. PMCID:PMC3018809.

Documentation