EEG Cortical Sources of Theta, Beta and 
Gamma Frequencies Orchestrate 
Audio-Visual Interactions.

IF 1.8 Q4 NEUROSCIENCES Annals of Neurosciences Pub Date : 2024-08-12 DOI:10.1177/09727531241262193
Manisha Dubey, Vinay Chitturi, Prashant Tayade, Ratna Sharma, Simran Kaur
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引用次数: 0

Abstract

Background: The fascinating ability of brain to integrate information from multiple sensory inputs has intrigued many researchers. Audio-visual (AV) interaction is a form of multisensory integration which we encounter to form meaningful representations of the environment around us. There is limited literature related to the underlying neural mechanisms.

Purpose: Quantitative EEG (QEEG), a tool with high temporal resolution can be used to understand cortical sources of AV interactions.

Methods: EEG data was recorded using 128 channels from 30 healthy subjects using audio, visual and AV stimuli in 'object detection task'. Electrical source imaging was performed using s-LORETA across seven frequency bands (lower alpha 1, lower alpha 2, upper alpha, beta, delta, gamma, theta) during AV versus unimodal conditions across 66 gyri.

Results: The cortical sources were activated in the theta, beta, and gamma bands in cross modal versus unimodal conditions, which we propose, reflect neural communication for AV interaction network. The cortical sources constituted areas involved with visual processing, auditory processing, established multisensory (frontotemporal cortex, parietal cortex, middle temporal gyrus, superior frontal gyrus, inferior frontal gyrus, precentral gyrus) and potential multisensory areas (paracentral, postcentral and subcallosal).

Conclusion: Together, these results offer an integrative view of cortical areas in frequency oscillations during AV interactions.

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脑电图皮层 Theta、Beta 和 Gamma 频率源协调视听互动。
研究背景大脑整合多种感官输入信息的神奇能力令许多研究人员着迷。视听(AV)交互是多感官整合的一种形式,我们通过这种形式对周围环境形成有意义的表征。有关其潜在神经机制的文献十分有限:定量脑电图(QEEG)是一种具有高时间分辨率的工具,可用于了解视听互动的皮层来源:方法:使用 128 个通道记录 30 名健康受试者在 "物体检测任务 "中使用音频、视觉和视听刺激时的脑电图数据。使用 s-LORETA 对 66 个回旋中的视听与单模态条件下的 7 个频段(下α1、下α2、上α、β、δ、γ、θ)进行了电源成像:结果:在跨模态与单模态条件下,大脑皮层在θ、β和γ波段被激活,我们认为这反映了视听交互网络的神经通信。这些皮质源构成了涉及视觉处理、听觉处理、既有多感官(额颞皮质、顶叶皮质、颞中回、额上回、额下回、中央前回)和潜在多感官(中央旁、中央后和胼胝体下)的区域:总之,这些结果提供了视听互动过程中频率振荡皮层区域的综合视图。
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来源期刊
Annals of Neurosciences
Annals of Neurosciences NEUROSCIENCES-
CiteScore
2.40
自引率
0.00%
发文量
39
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