核糖体操作子数据库:从基因组组装中提取的全长 rDNA 操作子数据库。

IF 5.5 1区 生物学 Q1 BIOCHEMISTRY & MOLECULAR BIOLOGY Molecular Ecology Resources Pub Date : 2024-10-21 DOI:10.1111/1755-0998.14031
Anders K Krabberød, Embla Stokke, Ella Thoen, Inger Skrede, Håvard Kauserud
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引用次数: 0

摘要

目前的 rDNA 参考序列数据库主要针对较短的 DNA 标记,如 16/18S 标记或内部转录间隔区(ITS)的一部分。然而,由于长读程 DNA 测序技术的进步,环境测序研究中越来越多地使用较长的 rDNA 操作子,以提高系统发育的分辨率。因此,越来越需要更长的 rDNA 参考序列。在这里,我们介绍了核糖体操作子数据库(ROD),其中包括从公开的基因组汇编中获取的真核生物全长 rDNA 操作子。在NCBI提供的34,701个真核生物基因组汇编中,有34.1%检测到了全长操作子。在大多数情况下(53.1%),检测到一个以上的操作子变体,这可能是由于基因组内操作子拷贝变异、非单倍体基因组中的等位基因变异或测序和组装过程中的技术错误造成的。在玉米中发现的最高拷贝数为 5947。总共检测到 453,697 个独特的操作子,经过基因组内聚类后,剩下 69,480 个操作子变异群,序列同一性为 99%。真核生物的操作子长度差异很大,从 4136 到 16,463 bp 不等,这将导致在扩增整个操作子时聚合酶链反应(PCR)产生相当大的偏差。对全长操作子进行聚类发现,不同部分(即 18S、28S 以及 18S 的 V4 和 V9 超变区)提供了不同的分类分辨率,其中 18S、V4 和 V9 区最为保守。ROD 将定期更新,为科学界提供越来越多的全长 rDNA 操作子。
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The Ribosomal Operon Database: A Full-Length rDNA Operon Database Derived From Genome Assemblies.

Current rDNA reference sequence databases are tailored towards shorter DNA markers, such as parts of the 16/18S marker or the internally transcribed spacer (ITS) region. However, due to advances in long-read DNA sequencing technologies, longer stretches of the rDNA operon are increasingly used in environmental sequencing studies to increase the phylogenetic resolution. There is, therefore, a growing need for longer rDNA reference sequences. Here, we present the ribosomal operon database (ROD), which includes eukaryotic full-length rDNA operons fished from publicly available genome assemblies. Full-length operons were detected in 34.1% of the 34,701 examined eukaryotic genome assemblies from NCBI. In most cases (53.1%), more than one operon variant was detected, which can be due to intragenomic operon copy variability, allelic variation in non-haploid genomes, or technical errors from the sequencing and assembly process. The highest copy number found was 5947 in Zea mays. In total, 453,697 unique operons were detected, with 69,480 operon variant clusters remaining after intragenomic clustering at 99% sequence identity. The operon length varied extensively across eukaryotes, ranging from 4136 to 16,463 bp, which will lead to considerable polymerase chain reaction (PCR) bias during amplification of the entire operon. Clustering the full-length operons revealed that the different parts (i.e., 18S, 28S, and the hypervariable regions V4 and V9 of 18S) provide divergent taxonomic resolution, with 18S, the V4 and V9 regions being the most conserved. The ROD will be updated regularly to provide an increasing number of full-length rDNA operons to the scientific community.

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来源期刊
Molecular Ecology Resources
Molecular Ecology Resources 生物-进化生物学
CiteScore
15.60
自引率
5.20%
发文量
170
审稿时长
3 months
期刊介绍: Molecular Ecology Resources promotes the creation of comprehensive resources for the scientific community, encompassing computer programs, statistical and molecular advancements, and a diverse array of molecular tools. Serving as a conduit for disseminating these resources, the journal targets a broad audience of researchers in the fields of evolution, ecology, and conservation. Articles in Molecular Ecology Resources are crafted to support investigations tackling significant questions within these disciplines. In addition to original resource articles, Molecular Ecology Resources features Reviews, Opinions, and Comments relevant to the field. The journal also periodically releases Special Issues focusing on resource development within specific areas.
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