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哥伦比亚中央山脉云雾林的一新属拟叶螽科(直翅目:螽斯科:拟叶螽亚科)的翅力学和声学通讯。

Wing mechanics and acoustic communication of a new genus of sylvan katydid (Orthoptera: Tettigoniidae: Pseudophyllinae) from the Central Cordillera cloud forest of Colombia.

机构信息

School of Life and Environmental Sciences, University of Lincoln, Lincoln, Lincolnshire, United Kingdom.

Department of Ecology and Genetics, Uppsala Universitet, Uppsala, Norbyvägen, Sweden.

出版信息

PeerJ. 2024 Jun 28;12:e17501. doi: 10.7717/peerj.17501. eCollection 2024.

DOI:10.7717/peerj.17501
PMID:38952987
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11216201/
Abstract

Stridulation is used by male katydids to produce sound the rubbing together of their specialised forewings, either by sustained or interrupted sweeps of the file producing different tones and call structures. There are many species of Orthoptera that remain undescribed and their acoustic signals are unknown. This study aims to measure and quantify the mechanics of wing vibration, sound production and acoustic properties of the hearing system in a new genus of Pseudophyllinae with taxonomic descriptions of two new species. The calling behaviour and wing mechanics of males were measured using micro-scanning laser Doppler vibrometry, microscopy, and ultrasound sensitive equipment. The resonant properties of the acoustic pinnae of the ears were obtained μ-CT scanning and 3D printed experimentation, and numerical modelling was used to validate the results. Analysis of sound recordings and wing vibrations revealed that the stridulatory areas of the right tegmen exhibit relatively narrow frequency responses and produce narrowband calls between 12 and 20 kHz. As in most Pseudophyllinae, only the right mirror is activated for sound production. The acoustic pinnae of all species were found to provide a broadband increased acoustic gain from ~40-120 kHz by up to 25 dB, peaking at almost 90 kHz which coincides with the echolocation frequency of sympatric bats. The new genus, named n. gen., is here derived as a new polytypic genus from the existing genus , based on morphological and acoustic evidence from one described ( n. comb.) and two new species ( n. sp. and n. sp.). Unlike most Tettigoniidae, exhibits a particular form of sexual dimorphism whereby the heads and mandibles of the males are greatly enlarged compared to the females. We suggest that is related to the genus , also found in cloud forests in Colombia, and not to .

摘要

摩擦发声是雄性蝉通过持续或间断地扫过其特化的前翅来产生声音,这会产生不同的音调及鸣叫声结构。有许多直翅目昆虫仍未被描述,它们的声音信号也不为人知。本研究旨在通过对一个新的伪叶蝉科属的雄性的翅膀振动、发声和听觉系统的声学特性进行测量和量化,对两个新种进行分类描述。使用微扫描激光多普勒测振仪、显微镜和超声敏感设备来测量雄性的求偶行为和翅膀力学。通过 μ-CT 扫描和 3D 打印实验获得耳声刺的共振特性,并使用数值模拟对结果进行验证。对声音记录和翅膀振动的分析表明,右翼革片的摩擦发声区表现出相对较窄的频率响应,并产生 12 至 20 kHz 之间的窄带叫声。与大多数伪叶蝉科一样,只有右镜参与发声。研究发现,所有物种的声刺都能提供一个从 40 到 120 kHz 的宽带增强的声增益,最大可达 25 dB,在近 90 kHz 处达到峰值,这与同域蝙蝠的回声定位频率相吻合。新属,命名为 n. gen.,根据一种已描述的物种(n. comb.)和两种新物种(n. sp. 和 n. sp.)的形态学和声学证据,从现有的属中衍生而来,是一个新的多型属。与大多数螽斯科不同,n. gen. 表现出一种特殊的性二型现象,即雄性的头部和下颚相对于雌性大大增大。我们认为,n. gen. 与也在哥伦比亚云雾林中发现的属有关,而与 无关。

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