In the practical application of brain-machine interface technology, the problem often faced is the low information content and high noise of the neural signals collected by the electrode and the difficulty of decoding by the decoder, which makes it difficult for the robotic to obtain stable instructions to complete the task. The idea based on the principle of cooperative shared control can be achieved by extracting general motor commands from brain activity, while the fine details of the movement can be hosted to the robot for completion, or the brain can have complete control. This study proposes a brain-machine interface shared control system based on spiking neural networks for robotic arm movement control and wheeled robots wheel speed control and steering, respectively. The former can reliably control the robotic arm to move to the destination position, while the latter controls the wheeled robots for object tracking and map generation. The results show that the shared control based on brain-inspired intelligence can perform some typical tasks in complex environments and positively improve the fluency and ease of use of brain-machine interaction, and also demonstrate the potential of this control method in clinical applications of brain-machine interfaces.
翻译:在实际应用大脑-机器接口技术方面,经常面临的问题是电极收集的神经信号信息含量低,噪音高,而且解码器难以解码,这使机器人难以获得完成这项任务的稳定指示。基于合作性共同控制原则的想法可以通过从大脑活动中提取一般运动指令来实现,而运动的细细细节可以寄托给机器人完成,或者大脑可以完全控制。这项研究提议了一种大脑-机器接口共享控制系统,其基础分别是机器人手臂运动控制神经网络的喷射以及轮式机器人轮式车速度控制与方向盘。前者可以可靠地控制机器人手臂移动到目的地位置,而后者则控制方向盘跟踪和地图生成的轮式机器人。结果显示,基于大脑智能智能智能的共享控制可以在复杂的环境中执行某些典型任务,并积极改善脑-机器互动的流畅度和使用便利。这项研究还表明这种控制方法在脑-机器界面临床应用方面的潜力。