Selection on size has generated distinctive paired wing flight systems for butterfly flight and migration

Richard Rabideau Childers,Liming Cai,Shawan Chowdhury,James D. Crall,Mark Cornwall, Rachel Hawkins Sipe,Crystal Maier,Sarah C. Maunsell,Gerard Talavera, Cheng‐Chia Tsai, Katherine Angier,Vijay Barve, Evan Dankowicz, Jomar D. Hinolan, Micael Gabriel A. Itliong,Mark Arcebal K. Naive, Gunnar Johnson, Francisco Solano Araújo Matos, Vanessa Howard Morgan,David Plotkin,Mary K. Salcedo,Vaughn Shirey, Kimberly Vermilya, Jalen Winstanley, Amy Wu,Robert Guralnick,Akito Y. Kawahara,David J. Lohman,Leslie Ries,Edward R. Soucy,Roger Vila,Nanfang Yu,Naomi E. Pierce,Wei-Ping Chan

Research Square (Research Square)(2023)

引用 0|浏览5
暂无评分
摘要
Abstract Butterfly migration across great distances is testimony to their impressive aeronautical skills. Wing size and shape are two key determinants of flight performance, and in butterflies, the specific configuration of forewings to hindwings including the overlapping area between them can have profound effects on overall size and shape. Here we use quantitative morphometrics to analyze the wing size, shape, and flight performance of 190 exemplar species representing a tribal-level phylogeny of Papilionoidea. We identify three morphological ‘flight systems’ that are characterized by these fore- and hindwing configurations (small [beating], medium, and large [gliding]), and our data suggest that the emergence of these systems coincided with periods of paleoclimatic upheaval. A higher proportion of migratory species have wings characteristic of gliders, and their degree of host specialization appears to be more flexible than that of counterparts with beating wings.
更多
查看译文
关键词
wing flight systems,butterfly flight,selection
AI 理解论文
溯源树
样例
生成溯源树,研究论文发展脉络
Chat Paper
正在生成论文摘要