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贝类系统基因组学需要有策略地选择基因组。

Molluscan phylogenomics requires strategically selected genomes.

机构信息

Senckenberg Research Institute, 60325 Frankfurt am Main, Germany.

Queen's University Belfast Marine Laboratory, Portaferry, Newtownards BT22 1PF, UK.

出版信息

Philos Trans R Soc Lond B Biol Sci. 2021 May 24;376(1825):20200161. doi: 10.1098/rstb.2020.0161. Epub 2021 Apr 5.

DOI:10.1098/rstb.2020.0161
PMID:33813889
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8059523/
Abstract

The extraordinary diversity in molluscan body plans, and the genomic mechanisms that enable it, remains one of the great questions of evolution. The eight distinct living taxonomic classes of molluscs are each unambiguously monophyletic; however, significant controversy remains about the phylogenetic relationships among those eight branches. Molluscs are the second-largest animal phylum, with over 100 000 living species with broad biological, economic and medical interest. To date, only around 53 genome assemblies have been accessioned to NCBI GenBank covering only four of the eight living molluscan classes. Furthermore, the molluscan taxa where partial or whole-genome assemblies are available are often aberrantly fast evolving or recently derived lineages. Characteristic adaptations provide interesting targets for whole-genome projects, in animals like the scaly-foot snail or octopus, but without basal-branching lineages for comparison, the context of recently derived features cannot be assessed. The currently available genomes also create a non-optimal set of taxa for resolving deeper phylogenetic branches: they are a small sample representing a large group, and those that are available come primarily from a rarefied pool. Thoughtful selection of taxa for future projects should focus on the blank areas of the molluscan tree, which are ripe with opportunities to delve into peculiarities of genome evolution, and reveal the biology and evolutionary history of molluscs. This article is part of the Theo Murphy meeting issue 'Molluscan genomics: broad insights and future directions for a neglected phylum'.

摘要

软体动物的身体结构极其多样化,其背后的基因组机制仍然是进化生物学的一个重大问题。八个独特的现生软体动物分类群都是单系的;然而,这些分支之间的系统发育关系仍然存在很大争议。软体动物是第二大动物门,拥有超过 10 万个具有广泛生物学、经济和医学意义的物种。迄今为止,只有大约 53 个基因组组装被提交到 NCBI GenBank,仅涵盖了现生软体动物的八个分类群中的四个。此外,具有部分或全基因组组装的软体动物分类群往往是进化异常迅速或最近衍生的谱系。特征性的适应性为整个基因组项目提供了有趣的目标,例如在鳞脚蜗牛或章鱼等动物中,但由于缺乏基础分支谱系,最近衍生特征的背景无法评估。目前可用的基因组也为解决更深层次的系统发育分支提供了一组不理想的分类群:它们是一个小样本,代表了一个大的群体,而且这些样本主要来自一个稀少的群体。在为未来项目选择分类群时,应该关注软体动物树的空白区域,这些区域充满了深入研究基因组进化特殊性、揭示软体动物生物学和进化历史的机会。本文是“Theo Murphy 会议议题‘软体动物基因组学:被忽视的门的广泛见解和未来方向’”的一部分。

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