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人类颞叶新皮质对听觉对象特征的敏感性。

Sensitivity to auditory object features in human temporal neocortex.

作者信息

Zatorre Robert J, Bouffard Marc, Belin Pascal

机构信息

Montreal Neurological Institute, McGill University, Montreal, Quebec H3A 2B4, Canada.

出版信息

J Neurosci. 2004 Apr 7;24(14):3637-42. doi: 10.1523/JNEUROSCI.5458-03.2004.

Abstract

This positron emission tomography study examined the hemodynamic response of the human brain to auditory object feature processing. A continuum of object feature variation was created by combining different numbers of stimuli drawn from a diverse sample of 45 environmental sounds. In each 60 sec scan condition, subjects heard either a distinct individual sound on each trial or simultaneous combinations of sounds that varied systematically in their similarity or distinctiveness across conditions. As more stimuli are combined they become more similar and less distinct from one another; the limiting case is when all 45 are added together to form a noise that is repeated on each trial. Analysis of covariation of cerebral blood flow elicited by this parametric manipulation revealed a response in the upper bank of the right anterior superior temporal sulcus (STS): when sounds were identical across trials (i.e., a noise made up of 45 sounds), activity was at a minimum; when stimuli were different from one another, activity was maximal. A right inferior frontal area was also revealed. The results are interpreted as reflecting sensitivity of this region of temporal neocortex to auditory object features, as predicted by neurophysiological and anatomical models implicating an anteroventral functional stream in object processing. The findings also fit with evidence that voice processing may involve regions within the anterior STS. The data are discussed in light of these models and are related to the concept that this functional stream is sensitive to invariant sound features that characterize individual auditory objects.

摘要

这项正电子发射断层扫描研究检测了人类大脑对听觉客体特征处理的血流动力学反应。通过组合从45种环境声音的多样样本中抽取的不同数量的刺激,创建了一个客体特征变化的连续体。在每60秒的扫描条件下,受试者在每次试验中听到的要么是一种独特的个体声音,要么是在不同条件下其相似性或独特性系统变化的声音组合。随着更多刺激被组合在一起,它们彼此之间变得更加相似且差异更小;极限情况是当所有45种声音加在一起形成一种在每次试验中重复的噪音时。对这种参数操作引发的脑血流量协变分析显示,右侧前颞上沟(STS)上缘有反应:当各次试验中的声音相同时(即由45种声音组成的噪音),活动处于最低水平;当刺激彼此不同时,活动达到最高水平。还发现了右侧额下区域。这些结果被解释为反映了颞叶新皮质这个区域对听觉客体特征的敏感性,这正如涉及客体处理中腹侧前功能流的神经生理学和解剖学模型所预测的那样。这些发现也与语音处理可能涉及前颞上沟内区域的证据相符。根据这些模型对数据进行了讨论,并与这一功能流对表征个体听觉客体的不变声音特征敏感这一概念相关联。

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