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库氏栉足蛛属(Cupiennius Simon,1891年)的蜘蛛(蜘蛛目,栉足蛛科):II. 关于一种游走型蜘蛛的振动环境。

Spiders of the genus Cupiennius Simon 1891 (Araneae, Ctenidae) : II. On the vibratory environment of a wandering spider.

作者信息

Barth Friedrich G, Bleckmann Horst, Bohnenberger Johannes, Seyfarth Ernst-August

机构信息

Gruppe Sinnesphysiologie, Zoologisches Institut der J.W. Goethe-Universität, Siesmayerstrasse 70, D-6000, Frankfurt am Main 11, Federal Republic of Germany.

, Widenmayerstrasse 48, D-8000, München 86, Federal Republic of Germany.

出版信息

Oecologia. 1988 Nov;77(2):194-201. doi: 10.1007/BF00379186.

DOI:10.1007/BF00379186
PMID:28310372
Abstract

Cupiennius salei (Ctenidae) is a tropical wandering spider which lives in close association with a particular type of plant (see companion paper). These plants are the channels through which the spiders receive and emit various types of vibrations. We measured the vibrations the spiders are typically exposed to when they sit on their dwelling plants (banana plant, bromeliad) in their natural biotope in Central America. In addition a laboratory analysis was carried out to get an approximate idea of the complex vibration-propagating properties of the dwelling plants, taking a banana plant as an example. (1) Types of vibrations (Figs. 1-4). Despite variability in detail there are characteristic differences in spectral composition between the vibrations of various abiotic and biotic origins: (a) Vibrations due to wind are very low frequency phenomena. Their frequency spectra are conspicuously narrow with prominent peaks close to or, more often, below 10 Hz. Vibrations due to raindrops show maximal acceleration values at ca. 1000 Hz. Their frequency band at-20 dB extends up to ca. 250 Hz where-as that of the vibrations due to wind extends to only ca. 50 Hz. (b) The frequency spectra of prey vibrations such as those generated by a running cockroach are typically broad-banded and contain high frequencies; they have largest peaks mostly between ca. 400 and 900 Hz. Their-20 dB frequency bands usually extend from a few Hz to ca. 900 Hz. Some potential prey animals such as grass-hoppers seem to be vibrocryptic; they walk by the spider as if unnoticed. Their "cautious" gait leads to only weak vibrations at very low frequencies resembling the background noise due to wind. Courtship signals are composed maily of low frequencies, intermediate between background noise and prey vibrations (male: prominent peaks at ca. 75 Hz and ca. 115 Hz; female: dominant frequencies between ca. 20 Hz and ca. 50 Hz). The male signal is composed of "syllables" and differs from all other vibrations studied here by being temporally highly ordered. A comparison with previous electrophysiological studies suggests that the high pass characteristics of the vibration receptors enhance the signal-to-(abiotic)-noise ratio and that the vibration-sensitive interneurons so far examined and found to have band pass characteristics are tuned to the frequencies found in the vibrations of biotic origin. (2) Signal propagation (Fig. 5). In terms of frequency-dependent attenuation of vibrations the banana plant is well suited for transmitting the above signals. Average attenuation values are ca. 0.35 dB/cm. Together with known data on vibration receptor sensitivity this explains the range of courtship signals of more than 1 m observed in behavioral studies. Attenuation in the plant is neither a monotonic function of frequency nor of distance from the signal source.

摘要

巴西游走蛛(栉足蛛科)是一种热带游走性蜘蛛,与特定类型的植物密切共生(见配套论文)。这些植物是蜘蛛接收和发出各种振动的通道。我们测量了蜘蛛在中美洲自然栖息地坐在其栖息植物(香蕉植株、凤梨科植物)上时通常所接触到的振动。此外,以香蕉植株为例进行了实验室分析,以大致了解栖息植物复杂的振动传播特性。(1)振动类型(图1 - 4)。尽管细节存在差异,但各种非生物和生物来源的振动在频谱组成上存在特征性差异:(a)风引起的振动是非常低频的现象。它们的频谱明显很窄,在接近或更常见的是低于10赫兹处有突出的峰值。雨滴引起的振动在约1000赫兹处显示出最大加速度值。其 - 20分贝的频带延伸至约250赫兹,而风引起的振动频带仅延伸至约50赫兹。(b)猎物振动的频谱,如奔跑蟑螂产生的振动,通常是宽带的且包含高频;它们的最大峰值大多在约400至900赫兹之间。其 - 20分贝的频带通常从几赫兹延伸至约900赫兹。一些潜在的猎物动物,如蚱蜢,似乎是振动隐匿的;它们从蜘蛛旁边走过时好像未被注意到。它们“谨慎”的步态仅在非常低频处产生微弱振动,类似于风产生的背景噪声。求偶信号主要由低频组成,介于背景噪声和猎物振动之间(雄性:在约75赫兹和约115赫兹处有突出峰值;雌性:主导频率在约20赫兹和约50赫兹之间)。雄性信号由“音节”组成,与这里研究的所有其他振动不同,其在时间上高度有序。与先前的电生理研究比较表明,振动感受器 的高通特性提高了信号与(非生物)噪声的比率,并且到目前为止所检查并发现具有带通特性的振动敏感中间神经元被调谐到生物来源振动中发现的频率。(2)信号传播(图5)。就振动的频率依赖性衰减而言,香蕉植株非常适合传输上述信号。平均衰减值约为0.35分贝/厘米。结合已知的振动感受器灵敏度数据,这解释了在行为研究中观察到的超过1米的求偶信号范围。植物中的衰减既不是频率的单调函数,也不是与信号源距离的单调函数。

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