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“全骨鱼类与真骨鱼类”问题:来自古代非硬骨辐鳍鱼类雀鳝(Amia calva)细胞遗传学的见解

"Holostei versus Halecostomi" Problem: Insight from Cytogenetics of Ancient Nonteleost Actinopterygian Fish, Bowfin Amia calva.

作者信息

Majtánová Zuzana, Symonová Radka, Arias-Rodriguez Lenin, Sallan Lauren, Ráb Petr

机构信息

Laboratory of Fish Genetics, Institute of Animal Physiology and Genetics, Academy of Sciences of the Czech Republic, Liběchov, Czech Republic.

Department of Zoology, Faculty of Science, Charles University in Prague, Prague 2, Czech Republic.

出版信息

J Exp Zool B Mol Dev Evol. 2017 Nov;328(7):620-628. doi: 10.1002/jez.b.22720. Epub 2017 Jan 11.

DOI:10.1002/jez.b.22720
PMID:28074622
Abstract

Bowfin belongs to an ancient lineage of nonteleost ray-finned fishes (actinopterygians) and is the only extant survivor of a once diverged group, the Halecomorphi or Amiiformes. Owing to the scarcity of extant nonteleost ray-finned lineages, also referred as "living fossils," their phylogenetic interrelationships have been the target of multiple hypotheses concerning their sister group relationships. Molecular and morphological data sets have produced controversial results; bowfin is considered as either the sister group to genome-duplicated teleosts (together forming the group of Halecostomi) or to gars (Lepisosteiformes; together forming the group of Holostei). However, any detailed cytogenetic analysis of bowfin chromosomes has never been performed to address this issue. Here we examined bowfin chromosomes by conventional (Giemsa-staining, C-banding, base-specific fluorescence and silver staining) and molecular (FISH with rDNA probes) cytogenetic protocols. We identified diploid chromosome number 2n = 46 with a middle-sized submetacentric chromosome pair as the major ribosomal DNA-bearing (45S rDNA), GC-positive and silver-positive element. The minor rDNA (5S rDNA) sites were localized in the pericentromeric region of one middle-sized acrocentric chromosome pair. Comparison with available cytogenetic data of other nonteleost actinopterygians (bichirs, sturgeons, gars) and teleost species including representative of basally branching lineages showed bowfin chromosomal characteristics more similar to the teleost type than to any other nonteleosts. Particularly striking differences were identified between bowfin and gars, the latter of which were found to mimic mammalian AT/GC genomic organisation. Such conclusion however contradicts the most recent phylogenomic results and raises the question what states are ancestral and what are derived.

摘要

雀鳝属于非硬骨辐鳍鱼(辐鳍鱼纲)的古老谱系,是曾经分化出的一个类群——全骨鱼目或雀鳝形目的唯一现存幸存者。由于现存非硬骨辐鳍鱼谱系稀少,也被称为“活化石”,它们的系统发育相互关系一直是关于其姐妹群关系的多种假说的研究对象。分子和形态学数据集产生了有争议的结果;雀鳝被认为要么是基因组复制硬骨鱼的姐妹群(共同构成全骨鱼类群),要么是雀鳝(雀鳝目;共同构成全骨总目)的姐妹群。然而,从未对雀鳝染色体进行过任何详细的细胞遗传学分析来解决这个问题。在这里,我们通过传统(吉姆萨染色、C带、碱基特异性荧光和银染)和分子(用rDNA探针进行荧光原位杂交)细胞遗传学方法研究了雀鳝染色体。我们确定其二倍体染色体数为2n = 46,其中一对中等大小的亚中着丝粒染色体是主要的核糖体DNA承载者(45S rDNA),为GC阳性且银染阳性元件。小rDNA(5S rDNA)位点位于一对中等大小的近端着丝粒染色体的着丝粒周围区域。与其他非硬骨辐鳍鱼(多鳍鱼、鲟鱼、雀鳝)和硬骨鱼物种(包括基部分支谱系的代表)现有的细胞遗传学数据进行比较,结果表明雀鳝的染色体特征与硬骨鱼类型更为相似,而与其他任何非硬骨鱼都不同。雀鳝和雀鳝之间的差异尤为显著,后者被发现模仿哺乳动物的AT/GC基因组组织。然而,这一结论与最新的系统发育基因组学结果相矛盾,并引发了一个问题,即哪些状态是祖先状态,哪些是衍生状态。

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