Deep Sequence and Shape Motif (DESSO)
DESSO identifies cis-regulatory sequence and DNA shape motifs and predicts transcription factor binding sites to elucidate TF-DNA binding and tethering interactions in the human genome.
Key Features:
- Deep Learning Integration: DESSO employs deep neural networks and surpasses DeepBind in predicting cis-regulatory motifs.
- Binomial Distribution Model: DESSO integrates a binomial distribution model with neural networks to predict transcription factor binding sites.
- Comprehensive Dataset Analysis: The method was tested on 690 human ENCODE ChIP-sequencing datasets for motif prediction benchmarking.
- Discovery of Tethering Interactions: DESSO facilitates identification of protein-protein-DNA tethering interactions and identified 61 putative tethering interactions among 100 expressed TFs in the K562 cell line.
- DNA Shape Feature Integration: DESSO incorporates DNA shape features, improving prediction of TF-DNA binding and revealing potential shape motifs associated with human transcription factors.
Scientific Applications:
- Transcription factor binding site mapping: Predicts sequence-based and shape-based motifs from ChIP-sequencing data to map TF binding sites.
- Elucidation of TF-DNA recognition rules: Reveals sequence and DNA shape motifs that inform mechanisms of transcriptional regulation.
- Identification of tethering interactions: Detects protein-protein-DNA tethering interactions among transcription factors, as demonstrated in the K562 cell line.
- Regulatory and disease genomics: Provides motif-level insights relevant to studies of gene regulation and disease-associated regulatory variants.
Methodology:
DESSO applies deep neural networks combined with a binomial distribution model to analyze sequence data and incorporates DNA shape information for motif and transcription factor binding prediction.
Topics
Details
- Tool Type:
- command-line tool, web application
- Programming Languages:
- MATLAB, C++, Perl, Python
- Added:
- 11/14/2019
- Last Updated:
- 12/22/2020
Operations
Publications
Yang J, Ma A, Hoppe AD, Wang C, Li Y, Zhang C, Wang Y, Liu B, Ma Q. Prediction of regulatory motifs from human Chip-sequencing data using a deep learning framework. Nucleic Acids Research. 2019;47(15):7809-7824. doi:10.1093/nar/gkz672. PMID:31372637. PMCID:PMC6735894.
DOI: 10.1093/NAR/GKZ672
PMID: 31372637
PMCID: PMC6735894
Funding: - National Science Foundation: #IIA-1355423, ACI-1548562
- National Institutes of Health: GM131399–01
- National Natural Science Foundation of China: 61572227, 61772313
- Shandong University: 2015WLJH19, YSPSDU
- Innovation Method Fund of China: SQ2018IMC600001
- Shanghai Municipal Science and Technology: 2018SHZDZX01
- Jilin Province: 20180414012GH
Links
Repository
https://github.com/OSU-BMBL/DESSO