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颅内记录显示人类外侧上颞叶的频谱组织。

Spectral organization of the human lateral superior temporal gyrus revealed by intracranial recordings.

机构信息

Department of Neurosurgery.

出版信息

Cereb Cortex. 2014 Feb;24(2):340-52. doi: 10.1093/cercor/bhs314. Epub 2012 Oct 9.

DOI:10.1093/cercor/bhs314
PMID:23048019
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3888366/
Abstract

The place of the posterolateral superior temporal (PLST) gyrus within the hierarchical organization of the human auditory cortex is unknown. Understanding how PLST processes spectral information is imperative for its functional characterization. Pure-tone stimuli were presented to subjects undergoing invasive monitoring for refractory epilepsy. Recordings were made using high-density subdural grid electrodes. Pure tones elicited robust high gamma event-related band power responses along a portion of PLST adjacent to the transverse temporal sulcus (TTS). Responses were frequency selective, though typically broadly tuned. In several subjects, mirror-image response patterns around a low-frequency center were observed, but typically, more complex and distributed patterns were seen. Frequency selectivity was greatest early in the response. Classification analysis using a sparse logistic regression algorithm yielded above-chance accuracy in all subjects. Classifier performance typically peaked at 100-150 ms after stimulus onset, was comparable for the left and right hemisphere cases, and was stable across stimulus intensities. Results demonstrate that representations of spectral information within PLST are temporally dynamic and contain sufficient information for accurate discrimination of tone frequencies. PLST adjacent to the TTS appears to be an early stage in the hierarchy of cortical auditory processing. Pure-tone response patterns may aid auditory field identification.

摘要

颞上后外侧(PLST)回在人类听觉皮层的层次结构中的位置尚不清楚。了解 PLST 如何处理频谱信息对于其功能特征的理解至关重要。向接受难治性癫痫侵袭性监测的受试者呈现纯音刺激。使用高密度硬膜下网格电极进行记录。纯音在与横颞回(TTS)相邻的 PLST 的一部分引起了强大的高伽马事件相关带功率反应。反应具有频率选择性,尽管通常是宽调谐的。在几个受试者中,观察到低频中心周围的镜像反应模式,但通常,观察到更复杂和分布的模式。在反应的早期,频率选择性最大。使用稀疏逻辑回归算法的分类分析在所有受试者中均产生了高于机会的准确性。分类器性能通常在刺激开始后 100-150 毫秒达到峰值,对于左半球和右半球病例相当,并且在刺激强度上是稳定的。结果表明,PLST 内的频谱信息表示是时间动态的,并包含足够的信息用于准确区分音调频率。与 TTS 相邻的 PLST 似乎是皮质听觉处理层次结构中的早期阶段。纯音反应模式可能有助于听觉场的识别。

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