Together we sync: a systematic qualitative and quantitative review of fMRI hyperscanning studies.

IF 3.1
Tommaso Berni, Lucia Maria Sacheli, Maria Cicirello, Marco Tettamanti, Eraldo Paulesu, Laura Zapparoli
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Abstract

Social interaction relies on neurocognitive processes that support mutual prediction and coordination. Traditional neuroimaging investigates brain activity at the individual level, limiting insight into the reciprocal nature of social exchange. Hyperscanning overcomes this by simultaneously recording brain activity from interacting individuals. We conducted a systematic review of 28 functional magnetic resonance imaging (fMRI) hyperscanning studies examining inter-brain coupling during interactive tasks. We assessed study features and examined whether paradigms included four key properties that make the use of hyperscanning particularly valuable over single-brain designs: real-time reciprocity, mutual information flow, unpredictability, and irreproducibility. Substantial methodological heterogeneity was observed, and only a few studies incorporated all four theoretically relevant features. To identify consistent spatial neural patterns of inter-brain coupling, we performed coordinate-based hierarchical clustering on residual (task-independent) and task-evoked coupling data. The latter was further analysed in relation to the complexity of the interaction. Residual coupling consistently involved the right posterior superior temporal gyrus, overlapping with the anterior temporo-parietal junction (TPJ), suggesting a role in spontaneous alignment. Task-evoked coupling differed by interactional complexity, with posterior temporal regions involved in low-complexity tasks, and medial frontal, mid-cingulate, and insular areas in high-complexity ones. These findings support the relevance of fMRI hyperscanning for studying inter-brain dynamics and inform future methodological development.

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我们一起同步:功能磁共振成像超扫描研究的系统定性和定量回顾。
社会互动依赖于支持相互预测和协调的神经认知过程。传统的神经成像在个体层面上研究大脑活动,限制了对社会交换互惠本质的了解。超扫描通过同时记录互动个体的大脑活动来克服这个问题。我们对28项fMRI超扫描研究进行了系统回顾,这些研究检查了交互任务期间的脑间耦合。我们评估了研究特征,并检查了范式是否包括四个关键属性,这些属性使得超扫描在单脑设计中特别有价值:实时互惠、相互信息流、不可预测性和不可重复性。观察到大量的方法异质性,只有少数研究纳入了所有四个理论相关特征。为了识别一致的脑间耦合空间神经模式,我们对残差(任务无关)和任务诱发耦合数据进行了基于坐标的分层聚类。后者进一步分析了相互作用的复杂性。残留的偶联始终累及右侧后颞上回,与前TPJ重叠,提示在自发对齐中起作用。任务诱发耦合因相互作用复杂性而异,低复杂性任务涉及后颞区,高复杂性任务涉及内侧额叶区、中扣带区和岛叶区。这些发现支持fMRI超扫描在研究脑间动力学方面的相关性,并为未来的方法发展提供信息。
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