Towards Potential of N-back Task as Protocol and EEGNet for the EEG-based Biometric

Nima Salimi, M. Barlow, E. Lakshika
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引用次数: 3

Abstract

Electroencephalogram (EEG) has emerged as a biometric trait potentially with more security benefits compared to its conventional competitors such as fingerprint, iris scan, voice recognition, and face detection. However, there is still a long way to go to make EEG biometrics practical in real-world environments. One of the challenges of the EEG-based biometric systems is time efficiency. The protocols that can evoke individualdependent EEG patterns are usually time consuming. The signal-to-noise ratio (SNR) of the EEG signal is also low, which means a large number of epochs/trials (i.e. long acquisition time) are required to achieve a high accuracy recognition system. In this study we propose an EEG-based biometric model that could achieve high identification accuracy with data instances as short as only 1.1s (single epoch instances). In our biometric model, we propose a new protocol called the N-back task which is based on human working memory. As the nature of working memory is very short, it would be possible to elicit individual-dependent EEG responses within a very short period of time. The single epoch classification was achieved applying a deep neural network called EEGNet. Using 1.1s data instances, the proposed model could identify a pool of 26 subjects with the mean accuracy of 0.95, where recognition rate for majority of subjects was ≥0.99. Different components of this identity recognition model, from the proposed protocol to the classification algorithm, can be a line of research for the future of EEG biometric.
论N-back任务作为脑电图生物识别协议和脑电图网络的潜力
与指纹、虹膜扫描、语音识别和面部检测等传统的竞争对手相比,脑电图(EEG)已经成为一种具有更多安全优势的生物特征。然而,要使脑电图生物识别技术在现实环境中应用,还有很长的路要走。基于脑电图的生物识别系统面临的挑战之一是时间效率。能够唤起个体依赖的脑电图模式的协议通常是耗时的。脑电信号的信噪比(SNR)也很低,这意味着要实现高精度的识别系统,需要进行大量的epoch /trial(即较长的采集时间)。在本研究中,我们提出了一种基于脑电图的生物识别模型,该模型可以在短至1.1s的数据实例(单epoch实例)下实现较高的识别精度。在我们的生物识别模型中,我们提出了一种新的基于人类工作记忆的N-back任务协议。由于工作记忆的性质很短,因此有可能在很短的时间内引起个体依赖的脑电图反应。采用深度神经网络EEGNet实现单历元分类。使用1.1s数据实例,该模型可以识别26个受试者,平均准确率为0.95,其中大多数受试者的识别率≥0.99。该身份识别模型的不同组成部分,从提出的协议到分类算法,都可以成为未来脑电图生物识别的研究方向。
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