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石松类植物能让我们了解植物的进化与发育的哪些方面?关于一个古老谱系的现代观点。

What can lycophytes teach us about plant evolution and development? Modern perspectives on an ancient lineage.

作者信息

Spencer Victoria, Nemec Venza Zoe, Harrison Cecily Jill

机构信息

School of Biological Sciences, The University of Bristol, Bristol, UK.

出版信息

Evol Dev. 2021 May;23(3):174-196. doi: 10.1111/ede.12350. Epub 2020 Sep 9.

DOI:10.1111/ede.12350
PMID:32906211
Abstract

All Evo-Devo studies rely on representative sampling across the tree of interest to elucidate evolutionary trajectories through time. In land plants, genetic resources are well established in model species representing lineages including bryophytes (mosses, liverworts, and hornworts), monilophytes (ferns and allies), and seed plants (gymnosperms and flowering plants), but few resources are available for lycophytes (club mosses, spike mosses, and quillworts). Living lycophytes are a sister group to the euphyllophytes (the fern and seed plant clade), and have retained several ancestral morphological traits despite divergence from a common ancestor of vascular plants around 420 million years ago. This sister relationship offers a unique opportunity to study the conservation of traits such as sporophyte branching, vasculature, and indeterminacy, as well as the convergent evolution of traits such as leaves and roots which have evolved independently in each vascular plant lineage. To elucidate the evolution of vascular development and leaf formation, molecular studies using RNA Seq, quantitative reverse transcription polymerase chain reaction, in situ hybridisation and phylogenetics have revealed the diversification and expression patterns of KNOX, ARP, HD-ZIP, KANADI, and WOX gene families in lycophytes. However, the molecular basis of further trait evolution is not known. Here we describe morphological traits of living lycophytes and their extinct relatives, consider the molecular underpinnings of trait evolution and discuss future research required in lycophytes to understand the key evolutionary innovations enabling the growth and development of all vascular plants.

摘要

所有的演化发育生物学(Evo-Devo)研究都依赖于在感兴趣的系统发育树上进行代表性取样,以阐明随时间推移的进化轨迹。在陆地植物中,代表苔藓植物(苔藓、地钱和角苔)、蕨类植物(蕨类及其近缘植物)和种子植物(裸子植物和开花植物)谱系的模式物种中已经建立了丰富的遗传资源,但石松类植物(石松、卷柏和水韭)的资源却很少。现存的石松类植物是真叶植物(蕨类植物和种子植物分支)的姐妹类群,尽管在约4.2亿年前与维管植物的共同祖先发生了分化,但仍保留了一些祖先的形态特征。这种姐妹关系为研究诸如孢子体分支、维管系统和无限生长等特征的保守性,以及叶子和根等在每个维管植物谱系中独立进化的特征的趋同进化提供了独特的机会。为了阐明维管发育和叶片形成的进化,使用RNA测序、定量逆转录聚合酶链反应、原位杂交和系统发育学的分子研究揭示了石松类植物中KNOX、ARP、HD-ZIP、KANADI和WOX基因家族的多样化和表达模式。然而,进一步性状进化的分子基础尚不清楚。在这里,我们描述了现存石松类植物及其已灭绝亲属的形态特征,考虑了性状进化的分子基础,并讨论了石松类植物未来为理解使所有维管植物生长和发育成为可能的关键进化创新所需的研究。

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