EpiMogrify models H3K4me3 data to identify signaling molecules that improve cell fate control and maintenance
EpiMogrify models H3K4me3 data to identify signaling molecules that improve cell fate control and maintenance
The need to derive and culture diverse cell or tissue types in vitro has prompted investigations on how changes in culture conditions affect cell states. However, the identification of the optimal conditions (e.g., signaling molecules and growth factors) required to maintain cell types or convert between cell types remains a time-consuming task. Here, we developed EpiMogrify, an approach that leverages data from ∼100 human cell/tissue types available from ENCODE and Roadmap Epigenomics consortia to predict signaling molecules and factors that can either maintain cell identity or enhance directed differentiation (or cell conversion). EpiMogrify integrates protein-protein interaction network information with a model of the cell's epigenetic landscape based on H3K4me3 histone modifications. Using EpiMogrify-predicted factors for maintenance conditions, we were able to better potentiate the maintenance of astrocytes and cardiomyocytes in vitro. We report a significant increase in the efficiency of astrocyte and cardiomyocyte differentiation using EpiMogrify-predicted factors for conversion conditions.
509-522.e10
Kamaraj, Uma S
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Chen, Joseph
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Katwadi, Khairunnisa
ed5b558a-6fcd-4039-8ae8-18752d81b036
Ouyang, John F
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Yang Sun, Yu Bo
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Lim, Yu Ming
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Liu, Xiaodong
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Handoko, Lusy
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Polo, Jose M
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Petretto, Enrico
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Rackham, Owen J L
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18 November 2020
Kamaraj, Uma S
3c28fbb3-f5fe-4243-a953-1bcfbb1daf6e
Chen, Joseph
366c5516-4ae2-4431-b641-47fc1f3941ff
Katwadi, Khairunnisa
ed5b558a-6fcd-4039-8ae8-18752d81b036
Ouyang, John F
ce6f93a5-b40f-4add-8d7b-3ae795c1a4cb
Yang Sun, Yu Bo
40a78175-9c6a-439c-baef-d1c7c6c7f9be
Lim, Yu Ming
e28b53e7-c769-46f4-920e-20cf87621da4
Liu, Xiaodong
8a273952-e4cf-4345-b45c-072ba5ba74c3
Handoko, Lusy
503dc681-340a-4aa7-b708-63f0b3c97909
Polo, Jose M
f55d7039-bd9e-4e56-98e3-fdf3d118d4f3
Petretto, Enrico
a8a7d254-ea06-4ab3-ba7e-b653349a29f4
Rackham, Owen J L
8122eb1f-6e9f-4da5-90e1-ce108ccbbcbf
Kamaraj, Uma S, Chen, Joseph, Katwadi, Khairunnisa, Ouyang, John F, Yang Sun, Yu Bo, Lim, Yu Ming, Liu, Xiaodong, Handoko, Lusy, Polo, Jose M, Petretto, Enrico and Rackham, Owen J L
(2020)
EpiMogrify models H3K4me3 data to identify signaling molecules that improve cell fate control and maintenance.
Cell Systems, 11 (5), .
(doi:10.1016/j.cels.2020.09.004).
Abstract
The need to derive and culture diverse cell or tissue types in vitro has prompted investigations on how changes in culture conditions affect cell states. However, the identification of the optimal conditions (e.g., signaling molecules and growth factors) required to maintain cell types or convert between cell types remains a time-consuming task. Here, we developed EpiMogrify, an approach that leverages data from ∼100 human cell/tissue types available from ENCODE and Roadmap Epigenomics consortia to predict signaling molecules and factors that can either maintain cell identity or enhance directed differentiation (or cell conversion). EpiMogrify integrates protein-protein interaction network information with a model of the cell's epigenetic landscape based on H3K4me3 histone modifications. Using EpiMogrify-predicted factors for maintenance conditions, we were able to better potentiate the maintenance of astrocytes and cardiomyocytes in vitro. We report a significant increase in the efficiency of astrocyte and cardiomyocyte differentiation using EpiMogrify-predicted factors for conversion conditions.
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Accepted/In Press date: 14 September 2020
e-pub ahead of print date: 9 October 2020
Published date: 18 November 2020
Additional Information:
Copyright © 2020 The Authors. Published by Elsevier Inc. All rights reserved.
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Local EPrints ID: 447699
URI: http://eprints.soton.ac.uk/id/eprint/447699
ISSN: 2405-4712
PURE UUID: f9eb01e6-83c4-4f99-a05a-982415594942
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Date deposited: 18 Mar 2021 17:46
Last modified: 17 Mar 2024 04:03
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Author:
Uma S Kamaraj
Author:
Joseph Chen
Author:
Khairunnisa Katwadi
Author:
John F Ouyang
Author:
Yu Bo Yang Sun
Author:
Yu Ming Lim
Author:
Xiaodong Liu
Author:
Lusy Handoko
Author:
Jose M Polo
Author:
Enrico Petretto
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