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鸣禽听觉前脑对自然声音选择性的发展。

Development of selectivity for natural sounds in the songbird auditory forebrain.

作者信息

Amin Noopur, Doupe Allison, Theunissen Frédéric E

机构信息

University of California, Berkeley, CA 94720-1650, USA.

出版信息

J Neurophysiol. 2007 May;97(5):3517-31. doi: 10.1152/jn.01066.2006. Epub 2007 Mar 14.

DOI:10.1152/jn.01066.2006
PMID:17360830
Abstract

In adult songbirds, auditory neurons in the primary auditory forebrain region of field L and a secondary auditory forebrain region of caudal mesopallium (CM) are highly responsive to natural sounds, such as conspecific song. Because these nuclei are involved in sensory representations of songs, we investigated how their function changes during development. We recorded neural responses to conspecific and tutor song and acoustically matched synthetic sounds in field L and lateral CM (CLM) of urethane-anesthetized juvenile male zebra finches of approximately 35 days of age. At this age, juvenile songbirds are memorizing the songs of their adult tutors but do not yet sing mature song. They are also starting to recognize songs of individual conspecifics. Compared with adult auditory forebrain neurons, juvenile neurons in field L were on average less responsive to auditory stimuli and exhibited less selectivity for natural sounds compared with the synthetic sounds. This developmental effect was more pronounced in the secondary subregions of L1 and L3 than in the primary thalamo-recipient subregion L2 of field L. CLM showed adultlike selectivity for natural sounds. Also, we did not find any evidence of memory for the tutor song in either field L or CLM. We note that the neural development of selective responses to conspecific song in the secondary subregions of field L is correlated with the emergence of individual song preference around 35 days of age. Therefore we suggest that the emergence of natural sound selectivity in field L could be important for the behavioral development of song recognition.

摘要

在成年鸣禽中,L区初级听觉前脑区域和尾侧中脑皮质(CM)这一二级听觉前脑区域的听觉神经元对诸如同种鸟鸣之类的自然声音具有高度反应性。由于这些核团参与了鸟鸣的感觉表征,我们研究了它们在发育过程中的功能变化。我们记录了在约35日龄的经乌拉坦麻醉的幼年雄性斑胸草雀的L区和外侧CM(CLM)中,对同种鸟鸣、导师鸟鸣以及声学匹配的合成声音的神经反应。在这个年龄段,幼年鸣禽正在记忆成年导师的歌声,但尚未唱出成熟的歌声。它们也开始识别个体同种鸣禽的歌声。与成年听觉前脑神经元相比,L区的幼年神经元对听觉刺激的平均反应性较低,并且与合成声音相比,对自然声音的选择性较低。这种发育效应在L1和L3的二级子区域比在L区的主要丘脑接受子区域L2中更为明显。CLM对自然声音表现出类似成年的选择性。此外,我们在L区或CLM中均未发现任何对导师歌声有记忆的证据。我们注意到,L区二级子区域中对同种鸟鸣的选择性反应的神经发育与约35日龄时个体歌声偏好的出现相关。因此,我们认为L区自然声音选择性的出现可能对歌声识别的行为发育很重要。

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