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巨型犀金龟的 elaborate 角不会产生显著的空气动力学成本。

Elaborate horns in a giant rhinoceros beetle incur negligible aerodynamic costs.

机构信息

Division of Biological Sciences, University of Montana, Missoula, MT, USA.

出版信息

Proc Biol Sci. 2013 Mar 13;280(1758):20130197. doi: 10.1098/rspb.2013.0197. Print 2013 May 7.

Abstract

Sexually selected ornaments and weapons are among nature's most extravagant morphologies. Both ornaments and weapons improve a male's reproductive success; yet, unlike ornaments that need only attract females, weapons must be robust and functional structures because they are frequently tested during male-male combat. Consequently, weapons are expected to be particularly costly to bear. Here, we tested the aerodynamic costs of horns in the giant rhinoceros beetle, Trypoxylus dichotomus. We predicted that the long, forked head horn would have three main effects on flight performance: increased body mass, an anterior shift in the centre of mass and increased body drag. We found that the horns were surprisingly lightweight, and therefore had a trivial effect on the male beetles' total mass and mass distribution. Furthermore, because beetles typically fly at slow speeds and high body angles, horns had little effect on total body drag. Together, the weight and the drag of horns increased the overall force required to fly by less than 3 per cent, even in the largest males. Because low-cost structures are expected to be highly evolutionarily labile, the fact that horns incur very minor flight costs may have permitted both the elaboration and diversification of rhinoceros beetle horns.

摘要

性选择的装饰物和武器是自然界中最奢侈的形态之一。装饰物和武器都能提高雄性的繁殖成功率;然而,与只需要吸引雌性的装饰物不同,武器必须是坚固和功能性的结构,因为它们在雄性之间的战斗中经常受到考验。因此,武器的承载能力预计会特别高。在这里,我们测试了巨型犀金龟 Trypoxylus dichotomus 中角的空气动力学成本。我们预测,长而分叉的头部角会对飞行性能产生三个主要影响:增加身体质量、质心向前移动和增加身体阻力。我们发现角非常轻,因此对角甲虫的总质量和质量分布几乎没有影响。此外,由于甲虫通常以低速和高身体角度飞行,因此角对总阻力的影响很小。总的来说,角的重量和阻力使飞行所需的总力增加不到 3%,即使是最大的雄性甲虫也是如此。由于低成本的结构预计会高度进化不稳定,因此角的飞行成本非常低,这可能允许了犀甲虫角的精心制作和多样化。

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