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对多种新颚类和古颚类鸟类的端脑结构进行形态计量学分析,揭示了与特定行为特征相关的区域差异。

Morphometric analysis of telencephalic structure in a variety of neognath and paleognath bird species reveals regional differences associated with specific behavioral traits.

作者信息

Corfield Jeremy R, Wild J Martin, Parsons Stuart, Kubke M Fabiana

机构信息

Department of Anatomy with Radiology, University of Auckland, Auckland, New Zealand.

出版信息

Brain Behav Evol. 2012;80(3):181-95. doi: 10.1159/000339828. Epub 2012 Aug 10.

DOI:10.1159/000339828
PMID:22890218
Abstract

Birds exhibit a huge array of behavior, ecology and physiology, and occupy nearly every environment on earth, ranging from the desert outback of Australia to the tropical rain forests of Panama. Some birds have adopted a fully nocturnal lifestyle, such as the barn owl and kiwi, while others, such as the albatross, spend nearly their entire life flying over the ocean. Each species has evolved unique adaptations over millions of years to function in their respective niche. In order to increase processing power or network efficiency, many of these adaptations require enlargements and/or specializations of the brain as a whole or of specific brain regions. In this study, we examine the relative size and morphology of 9 telencephalic regions in a number of Paleognath and Neognath birds and relate the findings to differences in behavior and sensory ecology. We pay particular attention to those species that have undergone a relative enlargement of the telencephalon to determine whether this relative increase in telencephalic size is homogeneous across different brain regions or whether particular regions have become differentially enlarged. The analysis indicates that changes in the relative size of telencephalic regions are not homogeneous, with every species showing hypertrophy or hypotrophy of at least one of them. The three-dimensional structure of these regions in different species was also variable, in particular that of the mesopallium in kiwi. The findings from this study provide further evidence that the changes in relative brain size in birds reflect a process of mosaic evolution.

摘要

鸟类展现出了极为多样的行为、生态和生理特征,几乎占据了地球上的每一种环境,从澳大利亚的内陆沙漠到巴拿马的热带雨林。一些鸟类采取了完全夜行的生活方式,比如仓鸮和几维鸟,而其他一些鸟类,如信天翁,则几乎一生都在海洋上空飞行。在数百万年的时间里,每个物种都进化出了独特的适应性特征,以在各自的生态位中发挥作用。为了提高处理能力或网络效率,许多这些适应性特征需要整个大脑或特定脑区的扩大和/或特化。在这项研究中,我们检查了一些古颚类和新颚类鸟类9个端脑区域的相对大小和形态,并将研究结果与行为和感觉生态学的差异联系起来。我们特别关注那些端脑相对增大的物种,以确定端脑大小的这种相对增加在不同脑区是否均匀,或者特定区域是否有不同程度的增大。分析表明,端脑区域相对大小的变化并不均匀,每个物种至少有一个区域出现肥大或萎缩。不同物种中这些区域的三维结构也各不相同,尤其是几维鸟中脑皮层的结构。这项研究的结果进一步证明,鸟类相对脑大小的变化反映了一种镶嵌进化的过程。

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