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Supervised enhancer prediction with epigenetic pattern recognition and targeted validation

delete2020-07-29
delete56
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OA
AI
A
Anurag Sethi
M
Mengting Gu
E
Emrah Gümüşgöz
L
Landon L. Chan
K
Koon‐Kiu Yan
J
Joel Rozowsky
I
Iros Barozzi
V
Veena Afzal
J
Jennifer A. Akiyama
I
Ingrid Plajzer-Frick
C
Chengfei Yan
C
Catherine S. Novak
M
Momoe Kato
T
Tyler H. Garvin
Q
Quan Pham
A
Anne Harrington
B
Brandon J. Mannion
E
Elizabeth A. Lee
Y
Y. Fukuda
A
Axel Visel
D
Diane E. Dickel
K
Kevin Y. Yip
R
Richard E. Sutton
L
L Pennacchio
M
Mark Gerstein *
DOI:10.1038/s41592-020-0907-8delete
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Abstract

Abstract

En 中文
Enhancers are important non-coding elements, but they have traditionally been hard to characterize experimentally. The development of massively parallel assays allows the characterization of large numbers of enhancers for the first time. Here, we developed a framework usingDrosophilaSTARR-seq to create shape-matching filters based on meta-profiles of epigenetic features. We integrated these features with supervised machine-learning algorithms to predict enhancers. We further demonstrated that our model could be transferred to predict enhancers in mammals. We comprehensively validated the predictions using a combination of in vivo and in vitro approaches, involving transgenic assays in mice and transduction-based reporter assays in human cell lines (153 enhancers in total). The results confirmed that our model can accurately predict enhancers in different species without re-parameterization. Finally, we examined the transcription factor binding patterns at predicted enhancers versus promoters. We demonstrated that these patterns enable the construction of a secondary model that effectively distinguishes enhancers and promoters. Supervised machine-learning models trained usingDrosophilaepigenetic and STARR-seq data can be transferred to predict mouse and human enhancers.
Keywords:
TRANSCRIPTION FACTOR-BINDING
DNA ELEMENTS
REGULATORY INFORMATION
HISTONE MODIFICATIONS
CHROMATIN SIGNATURES
GENE-EXPRESSION
HUMAN GENOME
DISCOVERY
MOUSE
ENCYCLOPEDIA
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Journal

Nature Methods cover
Nature Methods
IF:
32.1
Papers:
7.2K
Citations:
12.7W

Organization

Y
Yale University
Scholars:
6.5W
Papers: 6.0W
Citations: 10.0W
L
Lawrence Berkeley National Laboratory
Scholars:
1.5W
Papers: 1.1W
Citations: 6.1W
C
Chinese University of Hong Kong
Scholars:
3.4W
Papers: 3.2W
Citations: 5.6W
U
united states department of energy (doe)
Scholars:
11.3W
Papers: 9.6W
Citations: 246
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