应用于车辆导航的P300检测系统

Riley Magee, S. Givigi
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引用次数: 0

摘要

脑机接口(BMI)系统用于分类来自大脑的生物信号,如脑电图(EEG)数据,以确定控制命令。有几种不同的信号可用于接口。其中一个找到了P300信号。P300信号是当用户观察、听到或注意到期望的刺激时被动产生的潜在信号。该信号与图形用户界面(GUI)结合使用,允许人们从可能的操作列表中选择命令。传统上,视觉刺激是重复和平均的,以提高分类精度,这反过来又降低了最大可能的命令率。为了提高命令率,本文描述了一个可以离线测试特征提取和分类器训练的系统。然后,在移动机器人转向仿真中进行了现场测试。最后,进行了现场实验。使用遗传算法(GA)选择用于分类的特征。利用所选特征,单次信号检测准确率达到78.3%。在模拟和现实世界的转向实验中,使用多epoch来提高分类器的性能,我们能够成功地导航一个简单的迷宫,同时保持分类器的准确性(Sim: $79.9 \pm 5.3$%, Real: $88.8\pm 10.1$%)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A System For P300 Detection Applied To Vehicle Navigation
Brain-machine interface (BMI) systems are used to classify biological signals from the brain, such as electroencephalogram (EEG) data, to determine control commands. There are several different signals that can be used for the interface. Among them, one finds the P300 signal. The P300 signal is a potential signal that is passively produced when a user observes, hears or pays attention to a desired stimulus. This signal has been used in conjunction with a graphical user interface (GUI) to allow a person to choose commands from a list of possible actions. Traditionally, the visual stimuli are repeated and averaged to increase classification accuracy, which, in turn, reduces the maximum possible command rate. In order to improve command rate, this paper describes a system wherein feature extraction and classifier training could be tested offline. Then, live testing in a mobile robot steering simulation was carried out. Finally, a live experiment is reported. The features to be used in classification are selected using a genetic algorithm (GA). Using the chosen features, 78.3% signal detection accuracy was achieved for single epochs. Using multiple-epochs to improve classifier performance in simulated and real-world steering experiments we were able to successfully navigate a simple maze while maintaining classifier accuracy (Sim: $79.9 \pm 5.3$%, Real: $88.8\pm 10.1$%).
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