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蟋蟀声学通讯中的温度耦合。II. 温度对强棱蟋蟀鸣叫产生和识别网络影响的定位

Temperature coupling in cricket acoustic communication. II. Localization of temperature effects on song production and recognition networks in Gryllus firmus.

作者信息

Pires A, Hoy R R

机构信息

Kewalo Marine Laboratory, University of Hawaii, Honolulu 96813.

出版信息

J Comp Physiol A. 1992 Aug;171(1):79-92. doi: 10.1007/BF00195963.

DOI:10.1007/BF00195963
PMID:1403993
Abstract

Acoustic communication in Gryllus firmus is temperature-coupled: temperature induces parallel changes in male calling song temporal pattern, and in female preference for song. Temperature effects on song production and recognition networks were localized by selectively warming head or thorax or both head and thorax of intact crickets, then eliciting aggression song production (males) or phonotaxis to synthetic calling song (females). Because male song is produced by a thoracic central pattern generator (CPG), and because head ganglia are necessary for female song recognition, measurements of female phonotaxis under such conditions may be used to test the following competing hypotheses about organization of the song recognition network: 1. A set of neurons homologous to the male song CPG exist in the female, and are used as a template that determines preferred values of song temporal parameters for song pattern recognition (the common neural elements hypothesis), and 2. temporal pattern preference is determined entirely within the head ganglia. Neither selective warming of the head nor of the thorax was effective in changing female song preference, but simultaneous warming of head and thorax shifted preference toward a faster song in most preparations, as did warming the whole animal by raising ambient temperature. These results suggest that phonotactic preference for song temporal pattern is plurisegmentally determined in field crickets. Selective warming experiments during aggression song production in males revealed that syllable period is influenced but not completely determined by thoracic temperature; head temperature is irrelevant. The song CPG appears to receive some rate-setting information from outside the thoracic central nervous system.

摘要

坚实侧翅夜蛾的声学通讯与温度相关

温度会引起雄性求偶歌声时间模式以及雌性对歌声偏好的平行变化。通过选择性地加热完整蟋蟀的头部或胸部,或者同时加热头部和胸部,然后引发雄性的攻击歌声(雄性)或雌性对合成求偶歌声的趋声行为,来定位温度对歌声产生和识别网络的影响。由于雄性歌声由胸部中央模式发生器(CPG)产生,并且由于头部神经节对于雌性歌声识别是必需的,在这种条件下对雌性趋声行为的测量可用于检验以下关于歌声识别网络组织的相互竞争的假设:1. 雌性中存在一组与雄性歌声CPG同源的神经元,并用作确定歌声模式识别中歌声时间参数的优选值的模板(共同神经元件假设),以及2. 时间模式偏好完全在头部神经节内确定。单独加热头部或胸部均不能有效地改变雌性对歌声的偏好,但在大多数实验准备中,同时加热头部和胸部会使偏好转向更快的歌声,通过提高环境温度加热整个动物时也是如此。这些结果表明,田间蟋蟀对歌声时间模式的趋声偏好是多节段决定的。在雄性攻击歌声产生期间进行的选择性加热实验表明,音节周期受胸部温度影响,但并非完全由其决定;头部温度无关紧要。歌声CPG似乎从胸部中枢神经系统外部接收一些速率设定信息。

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