Approaches to Whole Mitochondrial Genome Sequencing on the Oxford Nanopore MinION

Roxanne R. Zascavage, Courtney L. Hall, Kelcie Thorson, Medhat Mahmoud, Fritz J. Sedlazeck, John V. Planz
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引用次数: 9

Abstract

Traditional approaches for interrogating the mitochondrial genome often involve laborious extraction and enrichment protocols followed by Sanger sequencing. Although preparation techniques are still demanding, the advent of next-generation or massively parallel sequencing has made it possible to routinely obtain nucleotide-level data with relative ease. These short-read sequencing platforms offer deep coverage with unparalleled read accuracy in high-complexity genomic regions but encounter numerous difficulties in the low-complexity homopolymeric sequences characteristic of the mitochondrial genome. The inability to discern identical units within monomeric repeats and resolve copy-number variations for heteroplasmy detection results in suboptimal genome assemblies that ultimately complicate downstream data analysis and interpretation of biological significance. Oxford Nanopore Technologies offers the ability to generate long-read sequencing data on a pocket-sized device known as the MinION. Nanopore-based sequencing is scalable, portable, and theoretically capable of sequencing the entire mitochondrial genome in a single contig. Furthermore, the recent development of a nanopore protein with dual reader heads allows for clear identification of nucleotides within homopolymeric stretches, significantly increasing resolution throughout these regions. The unrestricted read lengths, superior homopolymeric resolution, and affordability of the MinION device make it an attractive alternative to the labor-intensive, time-consuming, and costly mainstay deep-sequencing platforms. This article describes three approaches to extract, prepare, and sequence mitochondrial DNA on the Oxford Nanopore MinION device. Two of the workflows include enrichment of mitochondrial DNA prior to sequencing, whereas the other relies on direct sequencing of native genomic DNA to allow for simultaneous assessment of the nuclear and mitochondrial genomes. © 2019 by John Wiley & Sons, Inc.

Basic Protocol: Enrichment-free mitochondrial DNA sequencing

Alternate Protocol 1: Mitochondrial DNA sequencing following enrichment with polymerase chain reaction (PCR)

Alternate Protocol 2: Mitochondrial DNA sequencing following enrichment with PCR-free hybridization capture

Support Protocol 1: DNA quantification and quality assessment using the Agilent 4200 TapeStation System

Support Protocol 2: AMPure XP bead clean-up

Support Protocol 3: Suggested data analysis pipeline

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牛津纳米孔MinION全线粒体基因组测序方法
询问线粒体基因组的传统方法通常涉及艰苦的提取和富集协议,然后进行桑格测序。尽管制备技术仍然要求很高,但下一代或大规模平行测序的出现使得相对容易地常规获得核苷酸水平数据成为可能。这些短读测序平台在高复杂性基因组区域提供深度覆盖和无与伦比的读取精度,但在线粒体基因组的低复杂性同聚序列特征中遇到许多困难。由于无法在单体重复序列中识别相同的单元,也无法在异质性检测中分辨拷贝数变化,导致基因组组装不理想,最终使下游数据分析和生物学意义的解释复杂化。牛津纳米孔技术公司提供了在一个口袋大小的设备上生成长读测序数据的能力,这个设备被称为MinION。基于纳米孔的测序是可扩展的,便携的,并且理论上能够在单个contig中测序整个线粒体基因组。此外,最近开发的具有双读取头的纳米孔蛋白允许在均聚延伸中清楚地识别核苷酸,显着提高了这些区域的分辨率。MinION设备不受限制的读取长度、优越的均聚物分辨率和可负担性使其成为劳动密集型、耗时且昂贵的主流深度测序平台的有吸引力的替代品。本文描述了三种方法来提取,准备,并在牛津纳米孔MinION装置上测序线粒体DNA。其中两种工作流程包括测序前的线粒体DNA富集,而另一种工作流程依赖于原生基因组DNA的直接测序,以允许同时评估核和线粒体基因组。©2019 by John Wiley &基本方案:富集-无线粒体DNA测序替代方案1:线粒体DNA测序富集后的聚合酶链反应(PCR)替代方案2:线粒体DNA测序富集后的PCR-无杂交捕获支持方案1:DNA定量和质量评估使用安捷伦4200 TapeStation系统支持方案2:AMPure XP头清理支持方案3:建议的数据分析管道
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Current Protocols in Human Genetics
Current Protocols in Human Genetics Biochemistry, Genetics and Molecular Biology-Genetics
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期刊介绍: Current Protocols in Human Genetics is the resource for designing and running successful research projects in all branches of human genetics.
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