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鳄形超目主要生境转变的进化结构和时间。

Evolutionary structure and timing of major habitat shifts in Crocodylomorpha.

机构信息

Department of Anatomical Sciences, Stony Brook University, Stony Brook, NY, 11794, USA.

Department of Earth and Environmental Sciences, University of Iowa, Iowa City, IA, 52242, USA.

出版信息

Sci Rep. 2019 Jan 24;9(1):514. doi: 10.1038/s41598-018-36795-1.

DOI:10.1038/s41598-018-36795-1
PMID:30679529
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6346023/
Abstract

Extant crocodylomorphs are semiaquatic ambush predators largely restricted to freshwater or estuarine environments, but the group is ancestrally terrestrial and inhabited a variety of ecosystems in the past. Despite its rich ecological history, little effort has focused on elucidating the historical pattern of ecological transitions in the group. Traditional views suggested a single shift from terrestrial to aquatic in the Early Jurassic. However, new fossil discoveries and phylogenetic analyses tend to imply a multiple-shift model. Here we estimate ancestral habitats across a comprehensive phylogeny and show at least three independent shifts from terrestrial to aquatic and numerous other habitat transitions. Neosuchians first invade freshwater habitats in the Jurassic, with up to four subsequent shifts into the marine realm. Thalattosuchians first appear in marine habitats in the Early Jurassic. Freshwater semiaquatic mahajangasuchids are derived from otherwise terrestrial notosuchians. Within nearly all marine groups, some species return to freshwater environments. Only twice have crocodylomorphs reverted from aquatic to terrestrial habitats, both within the crown group. All living non-alligatorid crocodylians have a keratinised tongue with salt-excreting glands, but the lack of osteological correlates for these adaptations complicates pinpointing their evolutionary origin or loss. Based on the pattern of transitions to the marine realm, our analysis suggests at least four independent origins of saltwater tolerance in Crocodylomorpha.

摘要

现存的鳄形超目动物是半水生伏击捕食者,主要局限于淡水或河口环境,但该群体在进化上是陆生的,过去曾栖息于各种生态系统中。尽管鳄形超目动物有着丰富的生态历史,但很少有人致力于阐明该群体生态转变的历史模式。传统观点认为,在侏罗纪早期发生了从陆地到水生的单一转变。然而,新的化石发现和系统发育分析倾向于暗示存在多次转变模式。在这里,我们在一个全面的系统发育框架中估计了祖先的栖息地,并显示至少有三次从陆地到水生的独立转变,以及许多其他的栖息地转变。新鳄类首先在侏罗纪中侵入淡水栖息地,随后有多达四次进入海洋领域的转变。海生鳄类最早出现在侏罗纪早期的海洋环境中。半水生的淡水真鳄类是由其他陆生的坚尾鳄类衍生而来的。在几乎所有的海洋群体中,一些物种都回到了淡水环境中。鳄形超目动物只有两次从水生环境回到陆生环境,而且都发生在冠群中。所有现存的非鳄类鳄形目动物都有一个角质化的舌头和排盐腺,但这些适应性的骨骼学特征并不明显,这使得确定它们的进化起源或丧失变得复杂。基于向海洋环境的转变模式,我们的分析表明,鳄形超目中至少有四个独立的耐盐性起源。

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