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使用事件相关 fMRI 评估猕猴大脑皮层与身体选择性区域相关的刺激表现。

Stimulus representations in body-selective regions of the macaque cortex assessed with event-related fMRI.

机构信息

Laboratorium voor Neuro- en Psychofysiologie, KU Leuven, Leuven, Belgium.

出版信息

Neuroimage. 2012 Nov 1;63(2):723-41. doi: 10.1016/j.neuroimage.2012.07.013. Epub 2012 Jul 14.

DOI:10.1016/j.neuroimage.2012.07.013
PMID:22796995
Abstract

Functional imaging studies in humans and monkeys have shown category-selective regions in the temporal cortex, in particular for faces and bodies. Although the body-selective regions have been well studied in humans, little is understood about the functional properties of such regions in macaques. To address this, we first mapped body-selective activations in the visual cortex of four rhesus monkeys in a block design fMRI study and identified two regions in the middle and anterior Superior Temporal Sulcus (STS) that were more strongly activated by monkey bodies compared to well-controlled manmade objects. These two regions partially overlapped with regions that were more activated by faces than manmade objects. Secondly, using an event-related, single image fMRI design we measured the activations to 200 images of 10 stimulus classes (monkey bodies, human bodies, mammals, birds, monkey faces, human faces, body-like sculptures, fruits/vegetables, and two sets of control objects). Multivoxel-pattern analyses showed that both body-selective regions primarily distinguished faces from other inanimate and animate objects, including bodies. Another distinction was present between inanimate objects and bodies in the middle STS body region. The category-based clustering was less pronounced in the anterior compared to the middle STS body-selective regions. In addition, both body-selective regions showed further selectivity for different "subclasses" of the broad body category such as monkeys, human, mammals and birds. Overall, these data indicate strong spatial clustering of animate categories in the macaque STS with a surprisingly marked distinction between faces and bodies within body-selective regions which was stronger than between manmade objects and bodies.

摘要

人类和猴子的功能成像研究表明,颞叶皮层中存在类别选择性区域,特别是对于面孔和身体。尽管人体选择性区域在人类中得到了很好的研究,但对于猕猴中此类区域的功能特性知之甚少。为了解决这个问题,我们首先在一项 fMRI 块设计研究中绘制了四只恒河猴视觉皮层中的身体选择性激活图,并在中颞上回(STS)的中部和前部识别出两个区域,这些区域对比人为控制的物体,对猴体的激活更强。这两个区域与更能被面孔激活的区域部分重叠,而不是人为控制的物体。其次,我们使用事件相关的单个图像 fMRI 设计,测量了 200 个 10 个刺激类别的图像(猴体、人体、哺乳动物、鸟类、猴脸、人脸、类身体雕塑、水果/蔬菜,以及两组对照物体)的激活。多体素模式分析表明,两个身体选择性区域主要区分了面孔与其他无生命和有生命的物体,包括身体。在中 STS 身体区域,无生命物体和身体之间还存在另一种区别。与中间 STS 身体选择性区域相比,在前部 STS 身体选择性区域中,基于类别聚类的效果不太明显。此外,两个身体选择性区域对广泛的身体类别中的不同“子类”表现出进一步的选择性,例如猴子、人类、哺乳动物和鸟类。总的来说,这些数据表明,恒河猴的 STS 中存在强烈的有生命类别的空间聚类,并且在身体选择性区域内,面孔和身体之间的区别非常明显,这种区别比人造物体和身体之间的区别更为明显。

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