基于肌电信号的卷积神经网络手部遥控机器人运动分类

Adi Sulistiono, T. Hardianto, Khairul Anam, Bambang Sujanarko, Naufal Ainur Rizal
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引用次数: 0

摘要

远程机器人或远程操作机器人是一种由人类操作员远程控制的设备,而不是遵循预定的运动序列,但它表现出半自主行为[1],结合了远程操作和远程呈现的主要子领域。在科技界,远程操作是远程操作最常用的术语。另一方面,远程呈现是远程机器人系统的一个子集,它配备了一个沉浸式界面,允许操作员通过远程机器人传达他的存在感,从而在远程环境中感受到物理存在[2]。在远程操作系统中,必须准备两个主要部件。即控制器或机器人操作员(本地站点)和被控机器人(远程站点)[3]。远程机器人需要一种传输媒介来进行通信。WebSocket非常适合作为远程机器人通信协议[4]。远程机器人有很多种类型,包括手动机器人。在本研究中,远程机器人使用卷积神经网络(CNN)算法对基于肌电信号的手部运动进行分类。模型测试有一个训练和模型调整的过程,以获得最佳的超参数值。这些结果在5个科目上进行测试,平均准确率为0.996600,f1分数为0.996634,精度为0.996309,训练数据的数据组成为80%,测试数据的数据组成为20%。为了测试远程机器人的时间延迟,从本地站点向网关服务器发送多个动作码,然后转发到远程站点,本地站点的下载带宽为7.79 Mbps,上传带宽为1.56 Mbps,远程站点的下载带宽为11.6 Mbps,上传带宽为5.96 Mbps,得到的平均值为0.395秒,即395毫秒。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Movement Classification for Hand Telerobot Based on Electromyography Signal Using Convolutional Neural Networks
A telerobot or teleoperated robot is a device that is remotely controlled by a human operator as opposed to following a predetermined sequence of movements, but which exhibits semi-autonomous behavior [1] Combining the major subfields of teleoperation and telepresence. In the scientific and technical community, teleoperation is the most common term for remote operation. Telepresence, on the other hand, is a subset of telerobotic systems equipped with an immersive interface that allows the operator to feel physically present in a remote environment by conveying his presence through the remote robot [2]. In a teleoperation system, there are two main components that must be prepared. Namely the controller or robot operator (local site) and the controlled robot (remote site) [3]. Telerobot requires a transmission medium to communicate. WebSocket is very appropriate to be used as a telerobot communication protocol [4]. There are many types of telerobot, including hand robot. In this study, a telerobot uses the convolutional neural network (CNN) algorithm to classify hand movements based on electromyography signal. Model testing has a training process and model tuning to get the best hyperparameter value. These results are tested on five subjects and call an average accuracy of 0.996600, f1 score of 0.996634, and precision of 0.996309 with a data composition of 80% for training data and 20% for testing data. To test the telerobot time delay by sending several motion codes from the local site to the gateway server and forwarded to the remote site with a local site bandwidth of 7.79 Mbps download and 1.56 Mbps upload and a remote site bandwidth of 11.6 Mbps for download and 5.96 Mbps for upload, the resulting average values average of 0.395 seconds or 395 ms.
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