Berkmush-Antipova Artemiy, Syrov Nikolay, Yakovlev Lev, Miroshnikov Andrei, Golovanov Frol, Shusharina Natalia, Kaplan Alexander
Baltic Center for Neurotechnology and Artificial Intelligence, Immanuel Kant Baltic Federal University, Kaliningrad, Russia.
Laboratory for Neurophysiology and Neuro-Computer Interfaces, Department of Human and Animal Physiology, Faculty of Biology, Lomonosov Moscow State University, Moscow, Russia.
Front Psychol. 2024 Jul 24;15:1394496. doi: 10.3389/fpsyg.2024.1394496. eCollection 2024.
Error-related potentials (ErrPs) have attracted attention in part because of their practical potential for building brain-computer interface (BCI) paradigms. BCIs, facilitating direct communication between the brain and machines, hold great promise for brain-AI interaction. Therefore, a comprehensive understanding of ErrPs is crucial to ensure reliable BCI outcomes. In this study, we investigated ErrPs in the context of the "" paradigm. 23 healthy participants were instructed to imagine an object from a predetermined set, while an algorithm randomly selected another object that was either the same as or different from the imagined object. We recorded and analyzed the participants' EEG activity to capture their mental responses to the algorithm's "predictions". The study identified components distinguishing correct from incorrect responses. It discusses their nature and how they differ from ErrPs extensively studied in other BCI paradigms. We observed pronounced variations in the shape of ErrPs across different stimulus sets, underscoring the significant influence of visual stimulus appearance on ErrP peaks. These findings have implications for designing effective BCI systems, especially considering the less conventional BCI paradigm employed. They emphasize the necessity of accounting for stimulus factors in BCI development.
错误相关电位(ErrPs)之所以受到关注,部分原因在于其在构建脑机接口(BCI)范式方面的实际潜力。脑机接口促进大脑与机器之间的直接通信,在脑与人工智能交互方面具有巨大潜力。因此,全面了解错误相关电位对于确保可靠的脑机接口结果至关重要。在本研究中,我们在“”范式的背景下研究了错误相关电位。23名健康参与者被要求从一组预先确定的物体中想象一个物体,同时一个算法随机选择另一个与想象物体相同或不同的物体。我们记录并分析了参与者的脑电图活动,以捕捉他们对算法“预测”的心理反应。该研究确定了区分正确和错误反应的成分。它讨论了它们的性质以及它们与在其他脑机接口范式中广泛研究的错误相关电位有何不同。我们观察到不同刺激集下错误相关电位的形状有明显变化,强调了视觉刺激外观对错误相关电位峰值的重大影响。这些发现对设计有效的脑机接口系统具有启示意义,特别是考虑到所采用的不太传统的脑机接口范式。它们强调了在脑机接口开发中考虑刺激因素的必要性。