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刺激诱导的信息流通过用于感知生物运动的皮质网络的反转。

Stimulus-induced reversal of information flow through a cortical network for animacy perception.

作者信息

Shultz Sarah, van den Honert Rebecca N, Engell Andrew D, McCarthy Gregory

机构信息

Department of Psychology, Yale University, New Haven, CT 06520-8205, USA.

Department of Psychology, Yale University, New Haven, CT 06520-8205, USA

出版信息

Soc Cogn Affect Neurosci. 2015 Jan;10(1):129-35. doi: 10.1093/scan/nsu028. Epub 2014 Mar 13.

Abstract

Decades of research have demonstrated that a region of the right fusiform gyrus (FG) and right posterior superior temporal sulcus (pSTS) responds preferentially to static faces and biological motion, respectively. Despite this view, both regions activate in response to both stimulus categories and to a range of other stimuli, such as goal-directed actions, suggesting that these regions respond to characteristics of animate agents more generally. Here we propose a neural model for animacy detection composed of processing streams that are initially differentially sensitive to cues signaling animacy, but that ultimately act in concert to support reasoning about animate agents. We use dynamic causal modeling, a measure of effective connectivity, to demonstrate that the directional flow of information between the FG and pSTS is initially dependent on the characteristics of the animate agent presented, a key prediction of our proposed network for animacy detection.

摘要

数十年的研究表明,右侧梭状回(FG)的一个区域和右侧颞上沟后部(pSTS)分别对静态面孔和生物运动有优先反应。尽管有这种观点,但这两个区域在对这两类刺激以及一系列其他刺激(如目标导向动作)做出反应时都会激活,这表明这些区域更普遍地对有生命主体的特征做出反应。在这里,我们提出了一种用于感知生命特征的神经模型,该模型由处理流组成,这些处理流最初对指示生命特征的线索有不同程度的敏感性,但最终协同作用以支持对有生命主体的推理。我们使用动态因果模型(一种有效连接性的度量方法)来证明,FG和pSTS之间信息的定向流动最初取决于所呈现的有生命主体的特征,这是我们提出的用于感知生命特征的网络的一个关键预测。

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