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寄生蝇艾伦同形寄蝇(寄蝇科:奥米寄蝇族)听觉中间神经元的听觉及频率依赖性

Hearing and frequency dependence of auditory interneurons in the parasitoid fly Homotrixa alleni (Tachinidae: Ormiini).

作者信息

Stumpner Andreas, Allen Geoff R, Lakes-Harlan Reinhard

机构信息

Johann-Friedrich-Blumenbach-Institut für Zoologie und Anthropologie, Abt. Neurobiologie, Georg-August Universität Göttingen, Berliner Str. 28, 37073, Göttingen, Germany.

出版信息

J Comp Physiol A Neuroethol Sens Neural Behav Physiol. 2007 Jan;193(1):113-25. doi: 10.1007/s00359-006-0174-x. Epub 2006 Oct 6.

DOI:10.1007/s00359-006-0174-x
PMID:17024499
Abstract

The parasitoid tachinid fly Homotrixa alleni detects its hosts by their acoustic signals. The tympanal organ of the fly is located at the prothorax and contains scolopidial sensory units of different size and orientation. The tympanal membrane vibrates in the frequency range of approximately 4-35 kHz, which is also reflected in the hearing threshold measured at the neck connective. The auditory organ is not tuned to the peak frequency (5 kHz) of the main host, the bush cricket Sciarasaga quadrata. Auditory afferents project in the three thoracic neuromeres. Most of the ascending interneurons branch in all thoracic neuromeres and terminate in the deutocerebrum of the brain. The interneurons do not differ considerably in frequency tuning, but in their sensitivity with lowest thresholds around 30 dB SPL. Suprathreshold responses of most neurons depend on frequency and intensity, indicating inhibitory influence at higher intensities. Some neurons respond particularly well at low frequency sounds (around 5 kHz) and high intensities (80-90 dB SPL), and thus may be involved in detection of the primary host, S. quadrata. The auditory system of H. alleni contains auditory interneurons reacting in a wide range of temporal patterns from strictly phasic to tonic and with clear differences in frequency responses.

摘要

寄生性食蚜蝇Homotrixa alleni通过宿主的声学信号来探测它们。这种食蚜蝇的鼓膜器官位于前胸,包含不同大小和方向的弦音器感觉单元。鼓膜在大约4 - 35千赫的频率范围内振动,这也反映在颈部神经索测量的听力阈值上。听觉器官并未调谐到主要宿主——螽斯Sciarasaga quadrata的峰值频率(5千赫)。听觉传入神经投射到三个胸神经节。大多数上行中间神经元在所有胸神经节中分支,并在脑的中脑终止。中间神经元在频率调谐方面差异不大,但在灵敏度上有所不同,最低阈值约为30分贝声压级。大多数神经元的阈上反应取决于频率和强度,表明在较高强度时有抑制作用。一些神经元在低频声音(约5千赫)和高强度(80 - 90分贝声压级)下反应特别好,因此可能参与对主要宿主Sciarasaga quadrata的探测。Homotrixa alleni的听觉系统包含听觉中间神经元,它们以从严格的相位到紧张性的广泛时间模式做出反应,并且在频率响应上有明显差异。

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