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猕猴大脑核心听觉皮层和颞上回前部平面的丘脑连接

Thalamic connections of the core auditory cortex and rostral supratemporal plane in the macaque monkey.

作者信息

Scott Brian H, Saleem Kadharbatcha S, Kikuchi Yukiko, Fukushima Makoto, Mishkin Mortimer, Saunders Richard C

机构信息

Laboratory of Neuropsychology, National Institute of Mental Health, National Institutes of Health (NIMH/NIH), Bethesda, Maryland.

出版信息

J Comp Neurol. 2017 Nov 1;525(16):3488-3513. doi: 10.1002/cne.24283. Epub 2017 Jul 24.

Abstract

In the primate auditory cortex, information flows serially in the mediolateral dimension from core, to belt, to parabelt. In the caudorostral dimension, stepwise serial projections convey information through the primary, rostral, and rostrotemporal (AI, R, and RT) core areas on the supratemporal plane, continuing to the rostrotemporal polar area (RTp) and adjacent auditory-related areas of the rostral superior temporal gyrus (STGr) and temporal pole. In addition to this cascade of corticocortical connections, the auditory cortex receives parallel thalamocortical projections from the medial geniculate nucleus (MGN). Previous studies have examined the projections from MGN to auditory cortex, but most have focused on the caudal core areas AI and R. In this study, we investigated the full extent of connections between MGN and AI, R, RT, RTp, and STGr using retrograde and anterograde anatomical tracers. Both AI and R received nearly 90% of their thalamic inputs from the ventral subdivision of the MGN (MGv; the primary/lemniscal auditory pathway). By contrast, RT received only ∼45% from MGv, and an equal share from the dorsal subdivision (MGd). Area RTp received ∼25% of its inputs from MGv, but received additional inputs from multisensory areas outside the MGN (30% in RTp vs. 1-5% in core areas). The MGN input to RTp distinguished this rostral extension of auditory cortex from the adjacent auditory-related cortex of the STGr, which received 80% of its thalamic input from multisensory nuclei (primarily medial pulvinar). Anterograde tracers identified complementary descending connections by which highly processed auditory information may modulate thalamocortical inputs.

摘要

在灵长类动物的听觉皮层中,信息在中外侧维度上从核心区依次流向带状区,再到旁带状区。在尾侧- Rostral维度上,逐步的串行投射通过颞上平面上的初级、 Rostral和 Rostrotemporal(AI、R和RT)核心区传递信息,继续到达 Rostrotemporal极区(RTp)以及 Rostral颞上回(STGr)和颞极的相邻听觉相关区域。除了这种皮质-皮质连接的级联之外,听觉皮层还从内侧膝状体核(MGN)接收平行的丘脑-皮质投射。先前的研究已经考察了从MGN到听觉皮层的投射,但大多数研究都集中在尾侧核心区AI和R。在本研究中,我们使用逆行和顺行解剖示踪剂研究了MGN与AI、R、RT、RTp和STGr之间连接的完整范围。AI和R都从MGN的腹侧亚区(MGv;初级/lemniscal听觉通路)接收了近90%的丘脑输入。相比之下,RT仅从MGv接收约45%的输入,其余部分来自背侧亚区(MGd)。RTp区约25%的输入来自MGv,但还从MGN之外的多感觉区接收额外输入(RTp区为30%,而核心区为1 - 5%)。MGN对RTp的输入将听觉皮层的这个 Rostral延伸部分与STGr的相邻听觉相关皮层区分开来,STGr从多感觉核(主要是内侧丘脑枕)接收80%的丘脑输入。顺行示踪剂确定了互补的下行连接,通过这些连接,经过高度处理的听觉信息可能会调节丘脑-皮质输入。

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