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颅内脑电图显示,右侧额下回和初级运动皮层在停止已启动反应中具有时间和频率特异性作用。

Intracranial EEG reveals a time- and frequency-specific role for the right inferior frontal gyrus and primary motor cortex in stopping initiated responses.

作者信息

Swann Nicole, Tandon Nitin, Canolty Ryan, Ellmore Timothy M, McEvoy Linda K, Dreyer Stephen, DiSano Michael, Aron Adam R

机构信息

University of California, San Diego, La Jolla, CA 92093-0662, USA.

出版信息

J Neurosci. 2009 Oct 7;29(40):12675-85. doi: 10.1523/JNEUROSCI.3359-09.2009.

DOI:10.1523/JNEUROSCI.3359-09.2009
PMID:19812342
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2801605/
Abstract

Inappropriate response tendencies may be stopped via a specific fronto/basal ganglia/primary motor cortical network. We sought to characterize the functional role of two regions in this putative stopping network, the right inferior frontal gyrus (IFG) and the primary motor cortex (M1), using electocorticography from subdural electrodes in four patients while they performed a stop-signal task. On each trial, a motor response was initiated, and on a minority of trials a stop signal instructed the patient to try to stop the response. For each patient, there was a greater right IFG response in the beta frequency band ( approximately 16 Hz) for successful versus unsuccessful stop trials. This finding adds to evidence for a functional network for stopping because changes in beta frequency activity have also been observed in the basal ganglia in association with behavioral stopping. In addition, the right IFG response occurred 100-250 ms after the stop signal, a time range consistent with a putative inhibitory control process rather than with stop-signal processing or feedback regarding success. A downstream target of inhibitory control is M1. In each patient, there was alpha/beta band desynchronization in M1 for stop trials. However, the degree of desynchronization in M1 was less for successfully than unsuccessfully stopped trials. This reduced desynchronization on successful stop trials could relate to increased GABA inhibition in M1. Together with other findings, the results suggest that behavioral stopping is implemented via synchronized activity in the beta frequency band in a right IFG/basal ganglia network, with downstream effects on M1.

摘要

不适当的反应倾向可能通过一个特定的额/基底神经节/初级运动皮层网络来阻止。我们试图利用四名患者在进行停止信号任务时硬膜下电极记录的脑电活动,来描述这个假定的停止网络中两个区域,即右侧额下回(IFG)和初级运动皮层(M1)的功能作用。在每次试验中,启动一个运动反应,在少数试验中,一个停止信号指示患者试图停止反应。对于每名患者,成功停止试验与未成功停止试验相比,右侧IFG在β频段(约16Hz)有更大的反应。这一发现为停止的功能网络增添了证据,因为在基底神经节中也观察到与行为停止相关的β频段活动变化。此外,右侧IFG的反应在停止信号后100 - 250毫秒出现,这个时间范围与假定的抑制控制过程一致,而不是与停止信号处理或关于成功的反馈一致。抑制控制的一个下游靶点是M1。对于每名患者,在停止试验中M1出现α/β频段去同步化。然而,成功停止试验中M1的去同步化程度低于未成功停止试验。成功停止试验中这种去同步化程度的降低可能与M1中GABA抑制增加有关。结合其他发现,结果表明行为停止是通过右侧IFG/基底神经节网络中β频段的同步活动来实现的,对M1有下游影响。

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