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听觉新颖性在任务条件下的皮层反应:一项颅内电生理学研究。

Cortical responses to auditory novelty across task conditions: An intracranial electrophysiology study.

机构信息

Department of Neurosurgery, The University of Iowa, Iowa City, IA, 52242, USA; Iowa Neuroscience Institute, The University of Iowa, Iowa City, IA, 52242, USA.

Departments of Neurology and Neuroscience, Albert Einstein College of Medicine, Bronx, NY, 10461, USA.

出版信息

Hear Res. 2021 Jan;399:107911. doi: 10.1016/j.heares.2020.107911. Epub 2020 Feb 11.

Abstract

Elucidating changes in sensory processing across attentional and arousal states is a major focus in neuroscience. The local/global deviant (LGD) stimulus paradigm engages auditory predictive coding over short (local deviance, LD) and long (global deviance, GD) time scales, and has been used to assay disruption of auditory predictive coding upon loss of consciousness. Our previous work (Nourski et al., 2018, J Neurosci 38:8441-52) examined effects of general anesthesia on short- and long-term novelty detection. GD effects were suppressed at subhypnotic doses of propofol, suggesting that they may be more related to task engagement than consciousness per se. The present study addressed this hypothesis by comparing cortical responses to auditory novelty during passive versus active listening conditions in awake listeners. Subjects were seven adult neurosurgical patients undergoing chronic invasive monitoring for medically intractable epilepsy. LGD stimuli were sequences of four identical vowels followed by a fifth identical or different vowel. In the passive condition, the stimuli were presented to subjects as they watched a silent TV program and were instructed to attend to its content. In the active condition, stimuli were presented in the absence of a TV program, and subjects were instructed to press a button in response to GD target stimuli. Intracranial recordings were made from multiple brain regions, including core and non-core auditory, auditory-related, prefrontal and sensorimotor cortex. Metrics of task performance included hit rate, sensitivity index, and reaction times. Cortical activity was measured as averaged auditory evoked potentials (AEPs) and event-related band power in high gamma (70-150 Hz) and alpha (8-14 Hz) frequency bands. The vowel stimuli and LD elicited robust AEPs in all studied brain areas in both passive and active conditions. High gamma responses to stimulus onset and LD were localized predominantly to the auditory cortex in the superior temporal plane and had a comparable prevalence and spatial extent between the two conditions. In contrast, GD effects (AEPs, high gamma and alpha suppression) were greatly enhanced during the active condition in all studied brain areas. The prevalence of high gamma GD effects was positively correlated with individual subjects' task performance. The data demonstrate distinct task engagement-related effects on responses to auditory novelty across the auditory cortical processing hierarchy. The results motivate a closer examination of effective connectivity underlying attentional modulation of cortical sensory responses, and serve as a foundation for examining changes in sensory processing associated with general anesthesia, sleep and disorders of consciousness.

摘要

阐明注意力和觉醒状态下感觉处理的变化是神经科学的主要焦点。局部/全局偏差(LGD)刺激范式在短(局部偏差,LD)和长(全局偏差,GD)时间尺度上参与听觉预测编码,并且已被用于检测意识丧失时听觉预测编码的破坏。我们之前的工作(Nourski 等人,2018 年,J Neurosci 38:8441-52)研究了全身麻醉对短期和长期新颖性检测的影响。在亚催眠剂量的异丙酚下,GD 效应受到抑制,这表明它们可能与任务参与度比意识本身更相关。本研究通过比较清醒受试者在被动和主动聆听条件下对听觉新颖性的皮质反应来验证这一假设。研究对象是七名接受慢性侵入性监测以治疗药物难治性癫痫的成年神经外科患者。LGD 刺激是由四个相同元音组成的序列,后跟第五个相同或不同的元音。在被动状态下,当受试者观看无声电视节目时,会向他们呈现刺激,并指示他们注意其内容。在主动状态下,在没有电视节目的情况下呈现刺激,并且指示受试者在 GD 目标刺激时按下按钮。从多个脑区(包括核心和非核心听觉、听觉相关、前额叶和感觉运动皮层)进行颅内记录。任务绩效的度量包括击中率、灵敏度指数和反应时间。皮质活动被测量为平均听觉诱发电位(AEPs)和高伽马(70-150 Hz)和阿尔法(8-14 Hz)频段的事件相关带功率。元音刺激和 LD 在被动和主动条件下都在所有研究的脑区中引起了强大的 AEPs。刺激和 LD 诱发的高伽马反应主要局限于上颞平面的听觉皮层,并且在两种条件下具有相似的普遍性和空间范围。相比之下,在所有研究的脑区中,在主动条件下,GD 效应(AEPs、高伽马和阿尔法抑制)大大增强。高伽马 GD 效应的普遍性与个体受试者的任务表现呈正相关。该数据证明了听觉皮质处理层次结构中听觉新颖性反应的明显与任务参与相关的效应。结果激励人们更仔细地研究注意力调制皮质感觉反应的有效连通性,并为检查与全身麻醉、睡眠和意识障碍相关的感觉处理变化奠定基础。

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