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第一背侧骨间肌等长收缩期间肌肉与大脑活动之间的关系。

Relation between muscle and brain activity during isometric contractions of the first dorsal interosseus muscle.

作者信息

van Duinen Hiske, Renken Remco, Maurits Natasha M, Zijdewind Inge

机构信息

Department of Medical Physiology, University Medical Center Groningen, University of Groningen, The Netherlands.

出版信息

Hum Brain Mapp. 2008 Mar;29(3):281-99. doi: 10.1002/hbm.20388.

Abstract

We studied the relationship between muscle activity (electromyography, EMG), force, and brain activity during isometric contractions of the index finger, on a group and individual level. Ten subjects contracted their right or left index finger at 5, 15, 30, 50, and 70% of their maximal force. Subjects received visual feedback of the produced force. We focused our analysis on brain activation that correlated with EMG. Brain activity of specific anatomical areas (region-of-interest analysis, ROI) was quantified and correlated with EMG activity. Furthermore, we tried to distinguish between brain areas in which activity was modulated by the amount of EMG and areas that were active during the task but in which the activity was not modulated. Therefore, we used two regressors simultaneously: (1) the produced EMG and (2) the task (a categorical regressor). As expected, activity in the motor areas (contralateral sensorimotor cortex, premotor areas, and ipsilateral cerebellum) strongly correlated with the amount of EMG. In contrast, activity in frontal and parietal areas (inferior part of the right precentral sulcus, ipsilateral supramarginal gyrus, bilateral inferior parietal lobule, bilateral putamen, and insular cortex) correlated with activation per se, independently of the amount of EMG. Activity in these areas was equal during contractions of the right or left index finger. We suppose that these areas are more involved in higher order motor processes during the preparatory phase or monitoring feedback mechanisms. Furthermore, our ROI analysis showed that muscle and brain activity strongly correlate in traditional motor areas, both at group and at subject level.

摘要

我们在群体和个体层面上研究了食指等长收缩过程中肌肉活动(肌电图,EMG)、力量和大脑活动之间的关系。十名受试者以其最大力量的5%、15%、30%、50%和70%收缩右手或左手食指。受试者收到所产生力量的视觉反馈。我们将分析重点放在与肌电图相关的大脑激活上。对特定解剖区域的大脑活动(感兴趣区域分析,ROI)进行量化,并与肌电图活动相关联。此外,我们试图区分活动受肌电图量调节的脑区和任务期间活跃但活动不受调节的脑区。因此,我们同时使用了两个回归变量:(1)所产生的肌电图和(2)任务(一个分类回归变量)。正如预期的那样,运动区域(对侧感觉运动皮层、运动前区和同侧小脑)的活动与肌电图量密切相关。相比之下,额叶和顶叶区域(右侧中央前沟下部、同侧缘上回、双侧下顶叶、双侧壳核和岛叶皮层)的活动与激活本身相关,与肌电图量无关。在右手或左手食指收缩期间,这些区域的活动是相等的。我们推测这些区域在准备阶段或监测反馈机制中更多地参与高阶运动过程。此外,我们的ROI分析表明,在群体和个体水平上,传统运动区域的肌肉和大脑活动密切相关。

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