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论嗓音的演变(作者译)

[On the evolution of voice (author's transl)].

作者信息

Jürgens U, Ploog D

出版信息

Arch Psychiatr Nervenkr (1970). 1976 Oct 28;222(2-3):117-37. doi: 10.1007/BF02206613.

DOI:10.1007/BF02206613
PMID:999489
Abstract

The paper gives a short survey of the phylogenetic development of the laryngeal and supralaryngeal apparatus from amphibians to man. The increasing differentiation of vocal behaviour, paralleling the differentiation of the vocal apparatus, is outlined and special reference is made to the non-verbal component in human language. It is stressed that animal vocal repertoires can be extremely rich, but in contrast to human verbal behaviour they are generated almost exclusively by laryngeal modulations and only to a minimal degree by supralaryngeal activity (i.e. articulation). A phylogenetic development can also be seen in the cerebral organization of vocal behaviour. In amphibians, reptiles and lower mammals, the dorsal midbrain-pons transitional zone seems to be the only area responsible for the production of vocal utterances. This area probably serves in integrating vocal fold movements, expiration, intra- and extra-oral muscle activity into species-specific vocal patterns; its destruction results in mutism. In higher mammals, including man, this area does not lose its original function but is brought under the control of the cortex around the anterior sulcus cinguli (supplementary motor area and anterior cingulate gyrus). The latter seems to play an essential role in the initiation of vocal utterances in situations which do not have a rigid stimulus-response characteristic, i.e. in voluntary vocal behaviour. The highest level of voice production, finally is represented by the cortical face area, the destruction of which is without consequence to the innate vocal behaviour of animals but produces dysarthria in man. This area (together with its associated structures, such as the cortex-pontine nuclei-cerebellum-thalamus-cortex circuit) seems to be essential for the production of verbal or, more generally, learned vocal behaviour.

摘要

本文简要综述了从两栖动物到人类喉及喉上结构的系统发育发展。概述了与发声器官分化并行的发声行为的日益分化,并特别提及了人类语言中的非言语成分。强调动物的发声 repertoire 可能极其丰富,但与人类言语行为不同的是,它们几乎完全由喉部调节产生,仅在极小程度上由喉上活动(即发音)产生。发声行为的脑组织中也可见系统发育发展。在两栖动物、爬行动物和低等哺乳动物中,中脑背侧 - 脑桥过渡区似乎是负责发声的唯一区域。该区域可能用于将声带运动、呼气、口腔内和口腔外肌肉活动整合为特定物种的发声模式;其破坏会导致缄默症。在包括人类在内的高等哺乳动物中,该区域并未丧失其原始功能,但受扣带前沟周围皮质(辅助运动区和前扣带回)的控制。后者似乎在没有严格刺激 - 反应特征的情况下,即在自主发声行为中启动发声方面起着至关重要的作用。最后,发声的最高水平由皮质面部区域代表,其破坏对动物的先天发声行为没有影响,但会导致人类构音障碍。该区域(及其相关结构,如皮质 - 脑桥核 - 小脑 - 丘脑 - 皮质回路)似乎对言语或更一般地说对习得的发声行为的产生至关重要。

相似文献

1
[On the evolution of voice (author's transl)].论嗓音的演变(作者译)
Arch Psychiatr Nervenkr (1970). 1976 Oct 28;222(2-3):117-37. doi: 10.1007/BF02206613.
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引用本文的文献

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From emotional signals to symbols.从情感信号到符号。
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2
Central nervous system control of the laryngeal muscles in humans.人类喉肌的中枢神经系统控制
Respir Physiol Neurobiol. 2005 Jul 28;147(2-3):205-22. doi: 10.1016/j.resp.2005.04.015.
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Hemispheric lateralization in the cortical motor preparation for human vocalization.人类发声的皮质运动准备中的半球侧化。

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