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澳大利亚喜鹊的歌声产生机制。

Mechanisms of song production in the Australian magpie.

机构信息

Medical Sciences, School of Medicine, Indiana University, Bloomington, IN 47405, USA.

出版信息

J Comp Physiol A Neuroethol Sens Neural Behav Physiol. 2011 Jan;197(1):45-59. doi: 10.1007/s00359-010-0585-6. Epub 2010 Sep 18.

Abstract

Australian magpies (Gymnorhina tibicen) are notable for their vocal prowess. We investigated the syringeal and respiratory dynamics of vocalization by two 6-month-old males, whose songs had a number of adult features. There was no strong lateral syringeal dominance and unilateral phonation was most often achieved by closing the syringeal valve on the contralateral side of the syrinx. Unlike other songbirds studied, magpies sometimes used an alternative syringeal motor pattern during unilateral phonation in which both sides of the syrinx are partially adducted and open to airflow. Also, in contrast to most other songbirds, the higher fundamental frequency during two-voice syllables was usually generated on the left side of the syrinx. Amplitude modulation, a prominent feature of magpie song, was produced by linear or nonlinear interactions between different frequencies which may originate either on opposite sides of the syrinx or on the same side. Pulse tones, similar to vocal fry in human speech, were present in some calls. Unlike small songbirds, the fundamental of the modal frequency can be as low as that of the pulse tone, suggesting that large birds may have evolved pulse tones to increase acoustic diversity, rather than decrease the fundamental frequency.

摘要

澳大利亚喜鹊(Gymnorhina tibicen)以其出色的叫声而闻名。我们研究了两只 6 个月大雄性喜鹊的鸣管和呼吸动力学,它们的歌声具有许多成年特征。鸣管没有明显的侧向优势,单侧发声最常通过关闭鸣管对侧的鸣管阀来实现。与其他研究的鸣禽不同,喜鹊在单侧发声时有时会使用一种替代的鸣管运动模式,其中鸣管的两侧部分靠拢并向气流开放。此外,与大多数其他鸣禽不同,两声音节中的基频通常在鸣管的左侧产生。幅度调制是喜鹊歌声的一个突出特征,它是由不同频率之间的线性或非线性相互作用产生的,这些频率可能起源于鸣管的相对侧或同一侧。类似于人类言语中的声门摩擦音的脉冲音也存在于一些叫声中。与小型鸣禽不同,模态频率的基频可以低至脉冲音的基频,这表明大型鸟类可能已经进化出脉冲音来增加声音的多样性,而不是降低基频。

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