利用长读数的力量进行定向测序。

IF 6.2 2区 生物学 Q1 BIOCHEMISTRY & MOLECULAR BIOLOGY
Shruti V Iyer, Sara Goodwin, William Richard McCombie
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引用次数: 0

摘要

长读数测序技术通过产生足够长的读数来跨越和解析基因组的复杂或重复区域,从而提高了基因组组装的连续性和质量。一些研究小组已经证明了长读数在检测数千个基因组和表观基因组特征方面的强大功能,而这些特征以前被短读数测序方法所遗漏。这些研究证明了长读数如何帮助解析基因组的重复和复杂区域,同时也强调了使用这些平台准确解析大量人群中的变异等位基因所需的通量和覆盖率要求。在撰写这篇综述时,在最高通量的短线程仪器上,全基因组长线程测序比短线程测序更昂贵;因此,在异源样本中实现足够的覆盖率以检测低频变异(如体细胞变异)仍然具有挑战性。另一方面,靶向测序可提供在异质人群中检测这些低频变异所需的深度。在这里,我们回顾了目前使用的和最近开发的靶向测序策略,这些策略利用现有的长读程技术提高了我们在各种生物环境中检测核酸的分辨率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Leveraging the power of long reads for targeted sequencing.

Long-read sequencing technologies have improved the contiguity and, as a result, the quality of genome assemblies by generating reads long enough to span and resolve complex or repetitive regions of the genome. Several groups have shown the power of long reads in detecting thousands of genomic and epigenomic features that were previously missed by short-read sequencing approaches. While these studies demonstrate how long reads can help resolve repetitive and complex regions of the genome, they also highlight the throughput and coverage requirements needed to accurately resolve variant alleles across large populations using these platforms. At the time of this review, whole-genome long-read sequencing is more expensive than short-read sequencing on the highest throughput short-read instruments; thus, achieving sufficient coverage to detect low-frequency variants (such as somatic variation) in heterogenous samples remains challenging. Targeted sequencing, on the other hand, provides the depth necessary to detect these low-frequency variants in heterogeneous populations. Here, we review currently used and recently developed targeted sequencing strategies that leverage existing long-read technologies to increase the resolution with which we can look at nucleic acids in a variety of biological contexts.

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来源期刊
Genome research
Genome research 生物-生化与分子生物学
CiteScore
12.40
自引率
1.40%
发文量
140
审稿时长
6 months
期刊介绍: Launched in 1995, Genome Research is an international, continuously published, peer-reviewed journal that focuses on research that provides novel insights into the genome biology of all organisms, including advances in genomic medicine. Among the topics considered by the journal are genome structure and function, comparative genomics, molecular evolution, genome-scale quantitative and population genetics, proteomics, epigenomics, and systems biology. The journal also features exciting gene discoveries and reports of cutting-edge computational biology and high-throughput methodologies. New data in these areas are published as research papers, or methods and resource reports that provide novel information on technologies or tools that will be of interest to a broad readership. Complete data sets are presented electronically on the journal''s web site where appropriate. The journal also provides Reviews, Perspectives, and Insight/Outlook articles, which present commentary on the latest advances published both here and elsewhere, placing such progress in its broader biological context.
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