Algorithms of control by thought in robotics: Active and passive BMIs based on prior knowledge

Kathia Chenane, Y. Touati, L. Boubchir, B. Daachi, A. A. Chérif
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引用次数: 3

Abstract

One of the objectives of the control using the human thought is to make useful robotic systems for persons with high dependency (quadriplegics, paraplegics, etc.). When the human subject is not able to move his limbs, upper or lower, he is no longer able to perform basic and necessary tasks in his daily life. Recently, robotic systems have reached a very advanced level. For example, humanoid robots have become able to walk, recognize and carry objects simultaneously. On the other hand, wearable robots or exoskeletons can help dependent human subject to move and perform tasks previously difficult to imagine. Of course, all these robotic systems cannot perform these tasks except if they are fitted with advanced control schemes. To make these robotic systems, having already some intelligence, more useful, many researchers have studied the problem of controllers based on the user thought. The real challenge is to translate/classify correctly the thought of the user into robotic actions. When the brain activities are not correctly classified or the action thought by the user is not quite performed, it is important to discover it at time. This allows us to update the classifier/controller parameters in order to interpret more precisely the brain activities concerning the following action. This paper deals with looking for relevant prior knowledge that can anticipate any classification error. Thereafter, we propose some reflections regarding the control of robots by passive thought. Our analysis and results are based on the brain machine interface (BMI) using the Steady State Visual Evoked Potentials technique (SSVEP).
机器人思想控制算法:基于先验知识的主动和被动bmi
使用人类思想控制的目标之一是为高度依赖的人(四肢瘫痪、截瘫等)制造有用的机器人系统。当人的四肢不能活动时,他就不能在日常生活中完成基本和必要的任务。最近,机器人系统已经达到了非常先进的水平。例如,人形机器人已经能够同时行走、识别和携带物体。另一方面,可穿戴机器人或外骨骼可以帮助依赖的人类主体移动和执行以前难以想象的任务。当然,所有这些机器人系统都不能执行这些任务,除非它们配备了先进的控制方案。为了使这些已经具有一定智能的机器人系统更有用,许多研究人员研究了基于用户思维的控制器问题。真正的挑战是将用户的想法正确地转化为机器人的动作。当大脑活动没有被正确分类或者用户的想法没有完全执行时,及时发现它是很重要的。这允许我们更新分类器/控制器参数,以便更准确地解释有关以下动作的大脑活动。本文研究如何寻找相关的先验知识来预测任何分类错误。在此基础上,我们提出了一些关于被动思维控制机器人的思考。我们的分析和结果是基于使用稳态视觉诱发电位技术(SSVEP)的脑机接口(BMI)。
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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