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软骨鱼类(鳐类)大脑结构和小脑叶片的变异

Variation in brain organization and cerebellar foliation in chondrichthyans: batoids.

作者信息

Lisney Thomas J, Yopak Kara E, Montgomery John C, Collin Shaun P

机构信息

School of Biomedical Sciences, The University of Queensland, St. Lucia, Qld., Australia.

出版信息

Brain Behav Evol. 2008;72(4):262-82. doi: 10.1159/000171489. Epub 2008 Nov 12.

DOI:10.1159/000171489
PMID:19001808
Abstract

Interspecific variation in relative brain size (encephalization), the relative size of the five major brain areas (the telencephalon, diencephalon, mesencephalon, cerebellum, and medulla) and the level of cerebellar foliation was assessed in over 20 representative species of batoid (skates and rays), from eight families. Using species as independent data points and phylogenetically independent contrasts, relationships among each of the neuroanatomical variables and two ecological variables, habitat and lifestyle, were assessed. Variation in relative brain size and brain organization appears to be strongly correlated with phylogeny. Members of the basal orders Rajiformes and Torpediniformes tend to have relatively small brains, with relatively small telencephalons, large medullas, and smooth, unfoliated cerebellums. More advanced Myliobatiformes possess relatively large brains, with relatively large telencephalons, small medullas, and complex, heavily foliated cerebellums. Increased brain size, telencephalon size, and cerebellar foliation also correlate with living in a complex habitat (such as in association with coral reefs) and an active, benthopelagic lifestyle, but as primary habitat and lifestyle also closely match phylogenetic relationships in batoids, it is difficult to separate the influence of phylogeny and ecological factors on brain organization in these animals. However, the results of two forms of multivariate analysis (principal component analysis and cluster analysis) reveal that certain species are clustered with others that share ecological traits, rather than with more closely related species from the same order. This suggests that ecological factors do play a role in defining patterns of brain organization and there is some evidence for 'cerebrotypes' in batoids.

摘要

在来自八个科的20多种代表性鳐形目鱼类(鳐和魟)中,评估了相对脑大小(脑化)、五个主要脑区(端脑、间脑、中脑、小脑和延髓)的相对大小以及小脑叶片化程度的种间变异。以物种作为独立数据点并采用系统发育独立对比法,评估了每个神经解剖学变量与两个生态变量(栖息地和生活方式)之间的关系。相对脑大小和脑结构的变异似乎与系统发育密切相关。基部目鳐形目和电鳐目的成员往往脑相对较小,端脑相对较小,延髓较大,小脑平滑且无叶片。更高级的鲼形目拥有相对较大的脑,端脑相对较大,延髓较小,小脑复杂且叶片繁多。脑大小、端脑大小和小脑叶片化程度的增加也与生活在复杂栖息地(如与珊瑚礁相关联)以及活跃的底栖-中上层生活方式相关,但由于主要栖息地和生活方式也与鳐形目的系统发育关系密切匹配,因此很难区分系统发育和生态因素对这些动物脑结构的影响。然而,两种多变量分析形式(主成分分析和聚类分析)的结果表明,某些物种与具有共同生态特征的其他物种聚集在一起,而不是与来自同一目的亲缘关系更近的物种聚集在一起。这表明生态因素在定义脑结构模式中确实起作用,并且有一些证据表明鳐形目存在“脑型”。

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