Tracing the evolution of the plant meiotic molecular machinery.

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Gokilavani Thangavel, Paulo G Hofstatter, Raphaël Mercier, André Marques
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引用次数: 2

Abstract

Meiosis is a highly conserved specialised cell division in sexual life cycles of eukaryotes, forming the base of gene reshuffling, biological diversity and evolution. Understanding meiotic machinery across different plant lineages is inevitable to understand the lineage-specific evolution of meiosis. Functional and cytogenetic studies of meiotic proteins from all plant lineage representatives are nearly impossible. So, we took advantage of the genomics revolution to search for core meiotic proteins in accumulating plant genomes by the highly sensitive homology search approaches, PSI-BLAST, HMMER and CLANS. We could find that most of the meiotic proteins are conserved in most of the lineages. Exceptionally, Arabidopsis thaliana ASY4, PHS1, PRD2, PRD3 orthologs were mostly not detected in some distant algal lineages suggesting their minimal conservation. Remarkably, an ancestral duplication of SPO11 to all eukaryotes could be confirmed. Loss of SPO11-1 in Chlorophyta and Charophyta is likely to have occurred, suggesting that SPO11-1 and SPO11-2 heterodimerisation may be a unique feature in land plants of Viridiplantae. The possible origin of the meiotic proteins described only in plants till now, DFO and HEIP1, could be traced and seems to occur in the ancestor of vascular plants and Streptophyta, respectively. Our comprehensive approach is an attempt to provide insights about meiotic core proteins and thus the conservation of meiotic pathways across plant kingdom. We hope that this will serve the meiotic community a basis for further characterisation of interesting candidates in future.

Abstract Image

追踪植物减数分裂分子机制的进化。
减数分裂是真核生物有性生命周期中高度保守的特化细胞分裂,是基因重组、生物多样性和进化的基础。了解不同植物谱系的减数分裂机制是了解减数分裂谱系特异性进化的必要条件。对所有植物谱系的减数分裂蛋白进行功能和细胞遗传学研究几乎是不可能的。因此,我们利用基因组学革命的优势,通过高度敏感的同源性搜索方法,PSI-BLAST, HMMER和CLANS,在积累的植物基因组中寻找核心减数分裂蛋白。我们可以发现,大多数减数分裂蛋白在大多数谱系中都是保守的。特别的是,拟南芥ASY4, PHS1, PRD2, PRD3同源物在一些遥远的藻类谱系中几乎没有检测到,这表明它们的保守性很小。值得注意的是,所有真核生物都可以确认SPO11的祖先复制。SPO11-1在绿藻和叶藻中可能已经丢失,表明SPO11-1和SPO11-2异二聚化可能是绿蕨属陆生植物的独特特征。目前只在植物中描述的减数分裂蛋白DFO和HEIP1的可能起源可以追溯,似乎分别发生在维管植物和链藻的祖先中。我们的综合方法是试图提供关于减数分裂核心蛋白的见解,从而保护整个植物界的减数分裂途径。我们希望这将服务于减数分裂界的基础上进一步表征有趣的候选人在未来。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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