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额叶θ振荡减少表明精神分裂症患者跨模态预测误差处理存在改变。

Reduced frontal theta oscillations indicate altered crossmodal prediction error processing in schizophrenia.

作者信息

Roa Romero Yadira, Keil Julian, Balz Johanna, Gallinat Jürgen, Senkowski Daniel

机构信息

Department of Psychiatry and Psychotherapy, Charité-Universitätsmedizin Berlin Hospital, St. Hedwig Hospital, Berlin, Germany; and

Department of Psychiatry and Psychotherapy, Charité-Universitätsmedizin Berlin Hospital, St. Hedwig Hospital, Berlin, Germany; and.

出版信息

J Neurophysiol. 2016 Sep 1;116(3):1396-407. doi: 10.1152/jn.00096.2016. Epub 2016 Jun 29.

Abstract

Our brain generates predictions about forthcoming stimuli and compares predicted with incoming input. Failures in predicting events might contribute to hallucinations and delusions in schizophrenia (SZ). When a stimulus violates prediction, neural activity that reflects prediction error (PE) processing is found. While PE processing deficits have been reported in unisensory paradigms, it is unknown whether SZ patients (SZP) show altered crossmodal PE processing. We measured high-density electroencephalography and applied source estimation approaches to investigate crossmodal PE processing generated by audiovisual speech. In SZP and healthy control participants (HC), we used an established paradigm in which high- and low-predictive visual syllables were paired with congruent or incongruent auditory syllables. We examined crossmodal PE processing in SZP and HC by comparing differences in event-related potentials and neural oscillations between incongruent and congruent high- and low-predictive audiovisual syllables. In both groups event-related potentials between 206 and 250 ms were larger in high- compared with low-predictive syllables, suggesting intact audiovisual incongruence detection in the auditory cortex of SZP. The analysis of oscillatory responses revealed theta-band (4-7 Hz) power enhancement in high- compared with low-predictive syllables between 230 and 370 ms in the frontal cortex of HC but not SZP. Thus aberrant frontal theta-band oscillations reflect crossmodal PE processing deficits in SZ. The present study suggests a top-down multisensory processing deficit and highlights the role of dysfunctional frontal oscillations for the SZ psychopathology.

摘要

我们的大脑会对即将到来的刺激产生预测,并将预测结果与传入的输入进行比较。预测事件失败可能会导致精神分裂症(SZ)中的幻觉和妄想。当刺激违反预测时,会发现反映预测误差(PE)处理的神经活动。虽然在单感官范式中已报道了PE处理缺陷,但尚不清楚SZ患者(SZP)是否表现出跨模态PE处理的改变。我们测量了高密度脑电图,并应用源估计方法来研究视听语音产生的跨模态PE处理。在SZP和健康对照参与者(HC)中,我们使用了一种既定的范式,其中高预测性和低预测性的视觉音节与一致或不一致的听觉音节配对。我们通过比较不一致和一致的高预测性和低预测性视听音节之间的事件相关电位和神经振荡差异来检查SZP和HC中的跨模态PE处理。在两组中,与低预测性音节相比,高预测性音节在206至250毫秒之间的事件相关电位更大,这表明SZP的听觉皮层中存在完整的视听不一致检测。振荡反应分析显示,在HC的额叶皮层中,与低预测性音节相比,高预测性音节在230至370毫秒之间θ波段(4 - 7赫兹)功率增强,而SZP则没有。因此,异常的额叶θ波段振荡反映了SZ中的跨模态PE处理缺陷。本研究表明存在自上而下的多感官处理缺陷,并突出了功能失调的额叶振荡在SZ精神病理学中的作用。

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