维持鸟类翅膀的气膜:鸟类主要和次要飞行羽毛的数量与底层骨骼大小之间的关系

IF 1.9 3区 生物学 Q1 ZOOLOGY
D. C. Deeming, M. Durkin, R. L. Nudds
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引用次数: 0

摘要

鸟类翅膀的大小和形态各异,包括羽毛的大小和数量以及基本的骨骼解剖结构。不同种类鸟类的初级汇膜数量似乎差别不大,但相比之下,据报道,次级汇膜的数量在 6 到 40 之间,取决于鸟类的大小。鉴于初级喙附着在鬃毛上,而次级喙附着在尺骨上,因此可以预测,随着鸟类体型的增大,骨骼长度也会增加,那么羽毛数量也会增加。我们收集了来自 25 个不同目 268 个物种的数据,并通过系统发育控制分析探讨了羽毛数量与骨骼大小之间的异构关系。初生羽毛的数量通常为 10 或 11 根,并不随鬃毛大小而变化。相比之下,第二根羽毛的数量随着尺骨长度的增加而增加,但只在某些目中出现。例如,在鸟形目中,次生羽毛的数量随尺骨长度的增加而增加,但尽管身体质量有两个数量级的差异,几乎所有的雀形目物种都有 9 根次生羽毛。目前还不清楚为什么尺长为 70 mm 的物种可以根据其目拥有 9 到 24 根次级羽毛。除了相对翼骨长度、飞行羽毛长度、飞行羽毛机械特性和飞行羽毛叶片密度的变化之外,这种次级羽毛数量的变化也是适应飞行要求的另一种潜在机制。翼展的明显限制约为体重的1/3。需要进一步研究探讨相对于尺骨长度的次级羽毛数量的变化是否伴随着羽毛叶片宽度或相邻羽毛重叠的变化,以及这与翅膀空气动力学的关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Maintaining the avian wing aerofoil: Relationships between the number of primary and secondary flight feathers and under-lying skeletal size in birds

Maintaining the avian wing aerofoil: Relationships between the number of primary and secondary flight feathers and under-lying skeletal size in birds

Maintaining the avian wing aerofoil: Relationships between the number of primary and secondary flight feathers and under-lying skeletal size in birds

Bird wings vary in size and morphology in terms of both size and number of feathers and the underlying skeletal anatomy. The number of primary remiges does not seem to vary much between bird species but, by contrast, the number of secondary remiges is reported to range between 6 and 40 depending on bird size. Given that the primaries are attached to the manus, and the secondaries are attached to the ulna, it was predicted that as bone lengths increased with increasing size of the bird, then feather count would increase. Data were collected for 268 species from 25 different orders, and phylogenetically controlled analysis explored the allometry between feather count and bone size. The number of primaries was typically 10 or 11 and did not vary with manus size. By contrast, the number of secondaries increased with ulna length, but only in some orders. For example, in Gruiformes, the number of secondary feathers increased concomitantly with ulna length but despite a two orders of magnitude range in body mass, almost all species in the Passeriformes had nine secondary remiges. It is unclear why, for instance, species with an ulna length of 70 mm can have between 9 and 24 secondaries depending on their order. This variation in secondary feather number can be added to variation in relative wing bone lengths, flight feather lengths, flight feather mechanical properties, and flight feather vane densities as another potential mechanism of adaptation to flight requirements. The apparent constraint of wingspan is scaling as approximately body mass1/3. Further research is needed to explore whether changes in secondary feather number relative to ulna length are accompanied by changes in feather vane width or the overlap of adjacent feathers and how this relates to wing aerodynamics.

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来源期刊
Journal of Zoology
Journal of Zoology 生物-动物学
CiteScore
3.80
自引率
0.00%
发文量
90
审稿时长
2.8 months
期刊介绍: The Journal of Zoology publishes high-quality research papers that are original and are of broad interest. The Editors seek studies that are hypothesis-driven and interdisciplinary in nature. Papers on animal behaviour, ecology, physiology, anatomy, developmental biology, evolution, systematics, genetics and genomics will be considered; research that explores the interface between these disciplines is strongly encouraged. Studies dealing with geographically and/or taxonomically restricted topics should test general hypotheses, describe novel findings or have broad implications. The Journal of Zoology aims to maintain an effective but fair peer-review process that recognises research quality as a combination of the relevance, approach and execution of a research study.
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