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获得声学模板可导致歌曲运动手势的精细化。

Acquisition of an acoustic template leads to refinement of song motor gestures.

机构信息

Department of Biology, University of Utah, Salt Lake City, Utah 84112, USA.

出版信息

J Neurophysiol. 2010 Aug;104(2):984-93. doi: 10.1152/jn.01031.2009. Epub 2010 Jun 16.

Abstract

Vocal learning, a key behavior in human speech development, occurs only in a small number of animal taxa. Ontogeny of vocal behavior in humans and songbirds involves acquisition of an acoustic model, which guides the development of self-generated vocalizations (sensorimotor period). How vocal development proceeds in the absence of an acoustic model is largely unknown and cannot be studied directly in humans. Here we explored the effects of an acoustic model on song motor control by comparing peripheral motor gestures (respiration and syringeal muscles) of tutored birds with those of birds raised in acoustic isolation. Although the overall use of syringeal muscles during song was similar in both groups, tutored birds displayed enhanced temporal patterns of activation in respiratory and syringeal motor gestures. Muscle activation was more uniformly distributed throughout the song of tutored birds than that of untutored birds. Similarly, the respiratory effort was similar for both groups, but the expiratory pulses of song contained more modulations and temporal complexity in tutored birds. These results indicate that the acquisition of an acoustic template guides a refinement of experience-independent motor gestures by increasing temporal fine structure, but there is no difference in bilateral activation patterns for a given sound between the two groups. Nevertheless, these subtle temporal changes in muscle activation give rise to pronounced acoustic differences between the songs of the tutored and untutored birds. Experience with song during ontogeny therefore guides a more refined use of experience-independent motor programs.

摘要

发声学习是人类言语发展的关键行为,仅发生在少数动物类群中。人类和鸣禽发声行为的个体发生涉及获得声学模型,该模型指导自生发声的发展(感觉运动期)。在缺乏声学模型的情况下,发声是如何发展的,在很大程度上是未知的,并且无法直接在人类中进行研究。在这里,我们通过比较有指导的鸟类和在声学隔离中饲养的鸟类的外周运动姿势(呼吸和鸣管肌肉),来探讨声学模型对鸣禽运动控制的影响。尽管两组鸟类在歌唱过程中整体使用鸣管肌肉的方式相似,但有指导的鸟类在呼吸和鸣管运动姿势的激活时间模式上表现出增强。与未受指导的鸟类相比,受指导鸟类的肌肉激活在整个歌声中分布更加均匀。类似地,两组鸟类的呼吸努力相似,但受指导鸟类的鸣叫声中包含更多的呼气脉冲调制和时间复杂性。这些结果表明,获得声学模板通过增加时间精细结构来指导经验独立运动姿势的细化,但两组鸟类发出相同声音时的双侧激活模式没有差异。然而,肌肉激活的这些细微时间变化导致受指导和未受指导鸟类的歌声之间存在明显的声学差异。因此,个体发生过程中的歌唱经验指导了对经验独立运动程序的更精细使用。

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