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蝴蝶翅膀形状和大小的比较系统发生学表明后翅和前翅的进化是独立的。

Comparative Phylogenetics of Papilio Butterfly Wing Shape and Size Demonstrates Independent Hindwing and Forewing Evolution.

机构信息

Center for Macroecology, Evolution, and Climate, University of Copenhagen, Universitetsparken 15, 2100 Copenhagen Ø, Denmark.

Florida Museum of Natural History, University of Florida, 1659 Museum Rd, Gainesville, FL 32611, USA.

出版信息

Syst Biol. 2020 Sep 1;69(5):813-819. doi: 10.1093/sysbio/syaa029.

Abstract

The complex forces that shape butterfly wings have long been a subject of experimental and comparative research. Butterflies use their wings for flight, camouflage, mate recognition, warning, and mimicry. However, general patterns and correlations among wing shape and size evolution are still poorly understood. We collected geometric morphometric measurements from over 1400 digitized museum specimens of Papilio swallowtails and combined them with phylogenetic data to test two hypotheses: 1) forewing shape and size evolve independently of hindwing shape and size and 2) wing size evolves more quickly than wing shape. We also determined the major axes of wing shape variation and discovered that most shape variability occurs in hindwing tails and adjacent areas. We conclude that forewing shape and size are functionally and biomechanically constrained, whereas hindwings are more labile, perhaps in response to disruptive selective pressure for Batesian mimicry or against predation. The development of a significant, re-usable, digitized data resource will enable further investigation on tradeoffs between flight performance and ecological selective pressures, along with the degree to which intraspecific, local-scale selection may explain macroevolutionary patterns. [Batesian mimicry; Lepidoptera; geometric morphometrics; museum specimens.].

摘要

蝴蝶翅膀的复杂形成力一直是实验和比较研究的主题。蝴蝶利用翅膀进行飞行、伪装、配偶识别、警告和拟态。然而,翅膀形状和大小进化之间的一般模式和相关性仍未得到很好的理解。我们从超过 1400 个数字化的 Papilio 燕尾蝶博物馆标本中收集了几何形态测量数据,并将其与系统发育数据相结合,以检验两个假设:1)前翅的形状和大小与后翅的形状和大小独立进化;2)翅膀大小的进化速度快于翅膀形状。我们还确定了翅膀形状变化的主要轴,并发现大多数形状变化发生在后翅的尾部和相邻区域。我们得出结论,前翅的形状和大小在功能和生物力学上受到限制,而后翅则更加不稳定,这可能是对贝氏拟态或防御捕食的破坏选择性压力的反应。这一重要的、可重复使用的数字化数据资源的开发将使我们能够进一步研究飞行性能和生态选择性压力之间的权衡,以及种内、局部尺度的选择在多大程度上可以解释宏观进化模式。[贝氏拟态;鳞翅目;几何形态测量学;博物馆标本。]

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