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沙漠蝗虫(沙漠飞蝗)的振动惊吓反应。

The vibrational startle response of the desert locust Schistocerca gregaria.

作者信息

Friedel T

机构信息

Department of Zoology, University of Cambridge, Downing Street, Cambridge CB2 3EJ, UK.

出版信息

J Exp Biol. 1999 Aug;202(Pt 16):2151-9. doi: 10.1242/jeb.202.16.2151.

DOI:10.1242/jeb.202.16.2151
PMID:10409486
Abstract

Substratum vibrations elicit a fast startle response in unrestrained quiescent desert locusts (Schistocerca gregaria). The response is graded with stimulus intensity and consists of a small, rapid but conspicuous movement of the legs and body, but it does not result in any positional change of the animal. With stimuli just above threshold, it begins with a fast twitch of the hindlegs generated by movements of the coxa-trochanter and femur-tibia joints. With increasing stimulus intensity, a rapid movement of all legs may follow, resulting in an up-down movement of the whole body. The magnitude of both the hindleg movement and electromyographic recordings from hindleg extensor and flexor tibiae muscles increases with stimulus amplitude and reaches a plateau at vibration accelerations above 20 m s(-)(2) (peak-to-peak). Hindleg extensor and flexor tibiae muscles in unrestrained animals are co-activated with a mean latency of 30 ms. Behavioural thresholds are as low as 0. 47 m s(-)(2) (peak-to-peak) at frequencies below 100 Hz but rise steeply above 200 Hz. The response habituates rapidly, and inter-stimulus intervals of 2 min or more are necessary to evoke maximal reactions. Intracellular recordings in fixed (upside-down) locusts also revealed co-activation of both flexor and extensor motor neurones with latencies of approximately 25 ms. This shows that the neuronal network underlying the startle movement is functional in a restrained preparation and can therefore be studied in great detail at the level of identified neurones.

摘要

基质振动会引发未受束缚的静止沙漠蝗虫(沙漠飞蝗)产生快速惊吓反应。该反应随刺激强度分级,包括腿部和身体的一个小而快速但明显的动作,但不会导致动物位置发生任何变化。当刺激强度略高于阈值时,反应始于由髋节 - 转节和股骨 - 胫关节运动产生的后肢快速抽搐。随着刺激强度增加,所有腿部可能会快速运动,导致整个身体上下移动。后肢运动的幅度以及后肢胫部伸肌和屈肌的肌电图记录均随刺激幅度增加,并在振动加速度高于20 m s⁻²(峰 - 峰值)时达到平稳状态。未受束缚动物的后肢胫部伸肌和屈肌会共同激活,平均潜伏期为30毫秒。行为阈值在低于100 Hz的频率下低至0.47 m s⁻²(峰 - 峰值),但在高于200 Hz时急剧上升。该反应会迅速产生习惯化,需要2分钟或更长的刺激间隔时间才能引发最大反应。对固定(倒置)蝗虫的细胞内记录还显示,屈肌和伸肌运动神经元会共同激活,潜伏期约为25毫秒。这表明惊吓运动背后的神经元网络在受限标本中具有功能,因此可以在已识别神经元的层面进行详细研究。

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