Research on shared control of robots based on hybrid brain-computer interface

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Ziqi Zhang , Mengfan Li , Ran Wei , Wenzhe Liao , Fuyong Wang , Guizhi Xu
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Abstract

Background

With the arrival of the new generation of artificial intelligence wave, new human-robot interaction technologies continue to emerge. Brain–computer interface (BCI) offers a pathway for state monitoring and interaction control between human and robot. However, the unstable mental state reduce the accuracy of human brain intent decoding, and consequently affects the precision of BCI control.

New methods

This paper proposes a hybrid BCI-based shared control (HB-SC) method for brain-controlled robot navigation. Hybrid BCI fuses electroencephalogram (EEG) and electromyography (EMG) for mental state monitoring and interactive control to output human perception and decision. The shared control based on multi-sensory fusion integrates the special obstacle information perceived by humans with the regular environmental information perceived by the robot. In this process, valid BCI commands are screened by mental state assessment and output to a layered costmap for fusion.

Results

Eight subjects participated in the navigation experiment with dynamically changing mental state levels to validate the effects of a hybrid brain-computer interface through two shared control modes. The results show that the proposed HB-SC reduces collisions by 37.50 %, improves the success rate of traversing obstacles by 25.00 %, and the navigation trajectory is more consistent with expectations.

Conclusions

The HB-SC method can dynamically and intelligently adjust command output according to different brain states, helping to reduce errors made by subjects in a unstable mental state, thereby greatly enhancing the system's safety.

基于混合脑机接口的机器人共享控制研究
背景随着新一代人工智能浪潮的到来,新的人机交互技术不断涌现。脑机接口(BCI)为人与机器人之间的状态监测和交互控制提供了一条途径。本文提出了一种基于混合 BCI 的共享控制(HB-SC)方法,用于脑控机器人导航。混合BCI融合了脑电图(EEG)和肌电图(EMG),用于精神状态监测和交互控制,以输出人类的感知和决策。基于多感官融合的共享控制将人类感知到的特殊障碍物信息与机器人感知到的常规环境信息整合在一起。在此过程中,有效的 BCI 命令通过精神状态评估进行筛选,并输出到分层成本图中进行融合。结果八名受试者参与了精神状态水平动态变化的导航实验,通过两种共享控制模式验证了混合脑机接口的效果。结果表明,所提出的 HB-SC 减少了 37.50 % 的碰撞,提高了 25.00 % 的穿越障碍物的成功率,导航轨迹与预期更加一致。结论 HB-SC 方法可以根据不同的大脑状态动态、智能地调整指令输出,有助于减少受试者在不稳定的精神状态下产生的错误,从而大大提高系统的安全性。
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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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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