A tool for rapid, automated characterization of population epigenomics in plants

Abstract Epigenetic variation in plant populations is an important factor in determining phenotype and adaptation to the environment. However, while advances have been made in the molecular and computational methods to analyze the methylation status of a given sample of DNA, tools to profile and com...

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Main Authors: Jack M. Colicchio, Cynthia L. Amstutz, Nelson Garcia, Keerthana N. Prabhu, Thomas M. Cairns, Melis Akman, Thomas Gottilla, Twyla Gollery, Shawn L. Stricklin, Travis S. Bayer
Format: Article
Language:English
Published: Nature Portfolio 2023-08-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-023-38356-7
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author Jack M. Colicchio
Cynthia L. Amstutz
Nelson Garcia
Keerthana N. Prabhu
Thomas M. Cairns
Melis Akman
Thomas Gottilla
Twyla Gollery
Shawn L. Stricklin
Travis S. Bayer
author_facet Jack M. Colicchio
Cynthia L. Amstutz
Nelson Garcia
Keerthana N. Prabhu
Thomas M. Cairns
Melis Akman
Thomas Gottilla
Twyla Gollery
Shawn L. Stricklin
Travis S. Bayer
author_sort Jack M. Colicchio
collection DOAJ
description Abstract Epigenetic variation in plant populations is an important factor in determining phenotype and adaptation to the environment. However, while advances have been made in the molecular and computational methods to analyze the methylation status of a given sample of DNA, tools to profile and compare the methylomes of multiple individual plants or groups of plants at high resolution and low cost are lacking. Here, we describe a computational approach and R package (sounDMR) that leverages the benefits of long read nanopore sequencing to enable robust identification of differential methylation from complex experimental designs, as well as assess the variability within treatment groups and identify individual plants of interest. We demonstrate the utility of this approach by profiling a population of Arabidopsis thaliana exposed to a demethylating agent and identify genomic regions of high epigenetic variability between individuals. Given the low cost of nanopore sequencing devices and the ease of sample preparation, these results show that high resolution epigenetic profiling of plant populations can be made more broadly accessible in plant breeding and biotechnology.
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spelling doaj.art-7f915e5bba5a4598b5210893df270d212023-11-20T09:21:36ZengNature PortfolioScientific Reports2045-23222023-08-0113111110.1038/s41598-023-38356-7A tool for rapid, automated characterization of population epigenomics in plantsJack M. Colicchio0Cynthia L. Amstutz1Nelson Garcia2Keerthana N. Prabhu3Thomas M. Cairns4Melis Akman5Thomas Gottilla6Twyla Gollery7Shawn L. Stricklin8Travis S. Bayer9Sound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanySound Agriculture CompanyAbstract Epigenetic variation in plant populations is an important factor in determining phenotype and adaptation to the environment. However, while advances have been made in the molecular and computational methods to analyze the methylation status of a given sample of DNA, tools to profile and compare the methylomes of multiple individual plants or groups of plants at high resolution and low cost are lacking. Here, we describe a computational approach and R package (sounDMR) that leverages the benefits of long read nanopore sequencing to enable robust identification of differential methylation from complex experimental designs, as well as assess the variability within treatment groups and identify individual plants of interest. We demonstrate the utility of this approach by profiling a population of Arabidopsis thaliana exposed to a demethylating agent and identify genomic regions of high epigenetic variability between individuals. Given the low cost of nanopore sequencing devices and the ease of sample preparation, these results show that high resolution epigenetic profiling of plant populations can be made more broadly accessible in plant breeding and biotechnology.https://doi.org/10.1038/s41598-023-38356-7
spellingShingle Jack M. Colicchio
Cynthia L. Amstutz
Nelson Garcia
Keerthana N. Prabhu
Thomas M. Cairns
Melis Akman
Thomas Gottilla
Twyla Gollery
Shawn L. Stricklin
Travis S. Bayer
A tool for rapid, automated characterization of population epigenomics in plants
Scientific Reports
title A tool for rapid, automated characterization of population epigenomics in plants
title_full A tool for rapid, automated characterization of population epigenomics in plants
title_fullStr A tool for rapid, automated characterization of population epigenomics in plants
title_full_unstemmed A tool for rapid, automated characterization of population epigenomics in plants
title_short A tool for rapid, automated characterization of population epigenomics in plants
title_sort tool for rapid automated characterization of population epigenomics in plants
url https://doi.org/10.1038/s41598-023-38356-7
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