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在观察物体时,扫视会调制上颞回中的振荡相位。

Saccades during object viewing modulate oscillatory phase in the superior temporal sulcus.

机构信息

Neuroscience Graduate Diploma Program, Department of Psychology, Centre for Vision Research, York University, Toronto, Ontario M3J 1P3, Canada.

出版信息

J Neurosci. 2011 Dec 14;31(50):18423-32. doi: 10.1523/JNEUROSCI.4102-11.2011.

Abstract

Saccadic eye movements (SEMs) are the primary means of gating visual information in primates and strongly influence visual perception. The active exploration of the visual environment ("active vision") via SEMs produces suppression during saccades and enhancement afterward (i.e., during fixation) in occipital visual areas. In lateral temporal lobe visual areas, the influence, if any, of eye movements is less well understood, despite the necessity of these areas for forming coherent percepts of objects. The upper bank of the superior temporal sulcus (uSTS) is one such area whose sensitivity to SEMs is unknown. We therefore examined how saccades modulate local field potentials (LFPs) in the uSTS of macaque monkeys while they viewed face and nonface object stimuli. LFP phase concentration increased following fixation onset in the alpha (8-14 Hz), beta (14-30 Hz), and gamma (30-60 Hz) bands and was distinct from the image-evoked response. Furthermore, near-coincident onsets of fixation and image presentation--like those occurring in active vision--led to enhanced responses through greater phase concentration in the same frequency bands. Finally, single-unit activity was modulated by the phase of alpha, beta, and gamma oscillations, suggesting that the observed phase-locking influences spike timing in uSTS. Previous research implicates phase concentration in these frequency bands as a correlate of perceptual performance (Womelsdorf et al., 2006; Bosman et al., 2009). Together, these results demonstrate sensitivity to eye movements in an object-processing region of the brain and represent a plausible neural basis for the enhancement of object processing during active vision.

摘要

扫视眼动(SEMs)是灵长类动物中视觉信息门控的主要手段,强烈影响视觉感知。通过 SEM 主动探索视觉环境(“主动视觉”)会在扫视期间产生抑制,在注视后(即在注视时)增强(即在注视时)在后顶叶视觉区域。在外侧颞叶视觉区域中,尽管这些区域对于形成物体的连贯感知是必要的,但眼球运动的影响(如果有的话)还不太清楚。上颞叶沟(uSTS)的上缘就是这样一个区域,其对 SEM 的敏感性尚不清楚。因此,我们研究了猕猴在观看人脸和非人脸物体刺激时,扫视如何调节 uSTS 中的局部场电位(LFPs)。在 alpha(8-14 Hz)、beta(14-30 Hz)和 gamma(30-60 Hz)频段中,LFPs 的相位集中在注视开始后增加,与图像诱发反应不同。此外,像在主动视觉中那样,注视和图像呈现的近乎同时发生会导致在相同频段中相位集中增强,从而导致响应增强。最后,单个单元的活动受到 alpha、beta 和 gamma 振荡相位的调制,这表明观察到的锁相影响 uSTS 中的尖峰定时。先前的研究表明,这些频段中的相位集中是感知性能的相关因素(Womelsdorf 等人,2006 年;Bosman 等人,2009 年)。这些结果共同证明了大脑中物体处理区域对眼球运动的敏感性,代表了主动视觉期间物体处理增强的合理神经基础。

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