Low-pass nanopore sequencing for measurement of global methylation levels in plants

Abstract Nanopore sequencing enables detection of DNA methylation at the same time as identification of canonical sequence. A recent study validated low-pass nanopore sequencing to accurately estimate global methylation levels in vertebrates with sequencing coverage as low as 0.01x. We investigated...

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Main Authors: Yusmiati Liau, Annabel Whibley, Amy M. Hill, Bhanupratap R. Vanga, Meeghan Pither-Joyce, Elena Hilario, Sarah Bailey, Susan J. Thomson, Darrell Lizamore
Format: Article
Language:English
Published: BMC 2024-12-01
Series:BMC Genomics
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Online Access:https://doi.org/10.1186/s12864-024-11145-w
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author Yusmiati Liau
Annabel Whibley
Amy M. Hill
Bhanupratap R. Vanga
Meeghan Pither-Joyce
Elena Hilario
Sarah Bailey
Susan J. Thomson
Darrell Lizamore
author_facet Yusmiati Liau
Annabel Whibley
Amy M. Hill
Bhanupratap R. Vanga
Meeghan Pither-Joyce
Elena Hilario
Sarah Bailey
Susan J. Thomson
Darrell Lizamore
author_sort Yusmiati Liau
collection DOAJ
description Abstract Nanopore sequencing enables detection of DNA methylation at the same time as identification of canonical sequence. A recent study validated low-pass nanopore sequencing to accurately estimate global methylation levels in vertebrates with sequencing coverage as low as 0.01x. We investigated the applicability of this approach to plants by testing three plant species and analysed the effect of technical and biological parameters on estimate precision and accuracy. Our results indicate that higher coverage (0.1x) is required to achieve accuracy in assessing plant global methylation comparable to that in vertebrates. Shorter read length and a closer sequence match between sample and reference genome improved measurement accuracy. Application of this method in Vitis vinifera showed consistent global methylation levels across different leaf sizes, and different sample preservation and DNA extraction methods, whereas different varieties and tissue types did exhibit methylation differences. Similarly, distinct methylation patterns were observed in different genomic features. Our findings suggest the suitability of this method as a low-cost screening tool for validation of experimental parameters, developmental time courses, and to assess methylation status for different modification types and sequence contexts at the level of whole genome or for abundant genomic features such as transposable elements.
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institution Kabale University
issn 1471-2164
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publishDate 2024-12-01
publisher BMC
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spelling doaj-art-ad7f9739faa44056b1e511f3d42a0e072024-12-29T12:10:56ZengBMCBMC Genomics1471-21642024-12-0125111210.1186/s12864-024-11145-wLow-pass nanopore sequencing for measurement of global methylation levels in plantsYusmiati Liau0Annabel Whibley1Amy M. Hill2Bhanupratap R. Vanga3Meeghan Pither-Joyce4Elena Hilario5Sarah Bailey6Susan J. Thomson7Darrell Lizamore8Grapevine Improvement, Bragato Research InstituteGrapevine Improvement, Bragato Research InstituteGrapevine Improvement, Bragato Research InstituteGrapevine Improvement, Bragato Research InstituteThe New Zealand Institute for Plant and Food Research LimitedLincoln UniversityLincoln UniversityThe New Zealand Institute for Plant and Food Research LimitedGrapevine Improvement, Bragato Research InstituteAbstract Nanopore sequencing enables detection of DNA methylation at the same time as identification of canonical sequence. A recent study validated low-pass nanopore sequencing to accurately estimate global methylation levels in vertebrates with sequencing coverage as low as 0.01x. We investigated the applicability of this approach to plants by testing three plant species and analysed the effect of technical and biological parameters on estimate precision and accuracy. Our results indicate that higher coverage (0.1x) is required to achieve accuracy in assessing plant global methylation comparable to that in vertebrates. Shorter read length and a closer sequence match between sample and reference genome improved measurement accuracy. Application of this method in Vitis vinifera showed consistent global methylation levels across different leaf sizes, and different sample preservation and DNA extraction methods, whereas different varieties and tissue types did exhibit methylation differences. Similarly, distinct methylation patterns were observed in different genomic features. Our findings suggest the suitability of this method as a low-cost screening tool for validation of experimental parameters, developmental time courses, and to assess methylation status for different modification types and sequence contexts at the level of whole genome or for abundant genomic features such as transposable elements.https://doi.org/10.1186/s12864-024-11145-wNanopore methylation sequencingSkimseqPlantVitis vinifera
spellingShingle Yusmiati Liau
Annabel Whibley
Amy M. Hill
Bhanupratap R. Vanga
Meeghan Pither-Joyce
Elena Hilario
Sarah Bailey
Susan J. Thomson
Darrell Lizamore
Low-pass nanopore sequencing for measurement of global methylation levels in plants
BMC Genomics
Nanopore methylation sequencing
Skimseq
Plant
Vitis vinifera
title Low-pass nanopore sequencing for measurement of global methylation levels in plants
title_full Low-pass nanopore sequencing for measurement of global methylation levels in plants
title_fullStr Low-pass nanopore sequencing for measurement of global methylation levels in plants
title_full_unstemmed Low-pass nanopore sequencing for measurement of global methylation levels in plants
title_short Low-pass nanopore sequencing for measurement of global methylation levels in plants
title_sort low pass nanopore sequencing for measurement of global methylation levels in plants
topic Nanopore methylation sequencing
Skimseq
Plant
Vitis vinifera
url https://doi.org/10.1186/s12864-024-11145-w
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