Determining Gaze Information from Steady-State Visually-Evoked Potentials

Ebru Sayilgan, Y. Yuce, Y. Isler
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引用次数: 5

Abstract

Brain-Computer Interface (BCI) is a communication system that enables individuals who lack control and use of their existing muscular and nervous systems to interact with the outside world because of various reasons. A BCI enables its user to communicate with some electronic devices by processing signals generated during brain activities. This study attempts to detect and collect gaze data within Electroencephalogram (EEG) signals through classification. To this purpose, three datasets comprised of EEG signals recorded by researchers from the Autonomous University were adopted. The EEG signals in these datasets were collected in a setting where subjects’ gaze into five boxes shown on a computer screen was recognized through Steady-State Visually Evoked Potential based BCI. The classification was performed using algorithms of Naive Bayes, Extreme Learning Machine, and Support Vector Machines. Three feature sets; Autoregressive, Hjorth, and Power Spectral Density, were extracted from EEG signals. As a result, using Autoregressive features, classifiers performed between 45.67% and 78.34%, whereas for Hjorth their classification performance was within 43.34-75.25%, and finally, by using Power Spectral Density their classification performance was between 57.36% and 83.42% Furthermore, classifier performances using Naive Bayes varied between 52.23% and 79.15% for Naive Bayes, 56.32-83.42% for Extreme Learning Machine, and 43.34-72.27% for Support Vector Machines by regarding classification algorithms. Among achieved accuracy performances, the best accuracy is 83.42%, achieved by the Power Spectral Density features and Extreme Learning Machine algorithm pair.
从稳态视觉诱发电位中确定凝视信息
脑机接口(BCI)是一种通信系统,它使由于各种原因而无法控制和使用现有肌肉和神经系统的个体能够与外界进行交互。脑机接口通过处理大脑活动过程中产生的信号,使用户能够与某些电子设备进行通信。本研究试图通过分类来检测和收集脑电图(EEG)信号中的凝视数据。为此,采用了由自治大学研究人员记录的EEG信号组成的三个数据集。这些数据集中的脑电图信号是在一个设置中收集的,在这个设置中,受试者凝视计算机屏幕上显示的五个盒子,通过基于稳态视觉诱发电位的BCI识别。使用朴素贝叶斯、极限学习机和支持向量机算法进行分类。三个特性集;从脑电信号中提取自回归、Hjorth和功率谱密度。结果表明,使用自回归特征分类器的分类性能在45.67% ~ 78.34%之间,而使用Hjorth分类器的分类性能在43.34 ~ 75.25%之间,最后使用功率谱密度分类器的分类性能在57.36% ~ 83.42%之间。此外,使用朴素贝叶斯分类器的分类性能在52.23% ~ 79.15%之间,使用极限学习机分类器的分类性能在56.32 ~ 83.42%之间。支持向量机43.34-72.27%。在已实现的准确率性能中,功率谱密度特征和极限学习机算法对的准确率最高,达到83.42%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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