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凭借八只翅膀飞行:豆娘(优雅蟌)交配飞行过程中翅膀运动学和空气动力学的性别差异。

Flying with eight wings: inter-sex differences in wingbeat kinematics and aerodynamics during the copulatory flight of damselflies (Ischnura elegans).

作者信息

Davidovich Hilla, Ribak Gal

机构信息

Department of Zoology, Faculty of Life Sciences, Tel Aviv University, 6997801, Tel Aviv, Israel.

出版信息

Naturwissenschaften. 2016 Aug;103(7-8):65. doi: 10.1007/s00114-016-1390-z. Epub 2016 Jul 12.

DOI:10.1007/s00114-016-1390-z
PMID:27406591
Abstract

Copulation in the blue-tailed damselfly, Ischnura elegans, can last over 5 hours, during which the pair may fly from place to place in the so-called "wheel position". We filmed copulatory free-flight and analyzed the wingbeat kinematics of males and females in order to understand the contribution of the two sexes to this cooperative flight form. Both sexes flapped their wings but at different flapping frequencies resulting in a lack of synchronization between the flapping of the two insects. Despite their unusual body posture, females flapped their wings in a stroke-plane not significantly different to that of the males (repeated-measures ANOVA, F1,7 = 0.154, p = 0.71). However, their flapping amplitudes were smaller by 42 ± 17 %, compared to their male mates (t test, t 7 = 9.298, p < 0.001). This was mostly due to shortening of the amplitude at the ventral stroke reversal point. Compared to solitary flight, males flying in copula increased flapping frequency by 19 %, while females decreased flapping amplitude by 27 %. These findings suggest that although both sexes contribute to copulatory flight, females reduce their effort, while males increase their aerodynamic output in order to carry both their own weight and some of the female's weight. This increased investment by the male is amplified due to male I. elegans being typically smaller than females. The need by smaller males to fly while carrying some of the weight of their larger mates may pose a constraint on the ability of mating pairs to evade predators or counter interference from competing solitary males.

摘要

蓝尾豆娘(Ischnura elegans)的交配过程可持续5个多小时,在此期间,雌雄豆娘可能会以所谓的“轮式姿势”从一个地方飞到另一个地方。我们拍摄了交配时的自由飞行,并分析了雄性和雌性的翅膀运动学,以了解两性在这种合作飞行形式中的作用。两性都会拍打翅膀,但拍打频率不同,导致两只昆虫的拍打缺乏同步性。尽管雌性交配时的身体姿势不同寻常,但它们拍打翅膀的冲程平面与雄性的并无显著差异(重复测量方差分析,F1,7 = 0.154,p = 0.71)。然而,与雄性伴侣相比,它们的拍打幅度小了42±17%(t检验,t 7 = 9.298,p < 0.001)。这主要是由于腹侧冲程反转点处的幅度缩短。与单独飞行相比,交配时飞行的雄性拍打频率增加了19%,而雌性拍打幅度降低了27%。这些发现表明,尽管两性都参与了交配飞行,但雌性减少了自身的努力,而雄性则增加了空气动力输出,以便同时承载自己和雌性的部分体重。由于雄性蓝尾豆娘通常比雌性小,雄性增加的这种投入被放大了。较小的雄性在携带较大配偶的部分体重时飞行的需求,可能会限制交配双方躲避捕食者或应对竞争的单独雄性干扰的能力。

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本文引用的文献

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Kinematic compensation for wing loss in flying damselflies.飞行豆娘翅膀损失的运动补偿
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