Publication | Open Access
Review of sEMG for Robot Control: Techniques and Applications
53
Citations
100
References
2023
Year
Robotic SystemsEngineeringNeural ControlFeature ExtractionMotor ControlAdvanced Motion ControlBiomedical EngineeringRehabilitation RoboticsSystems EngineeringRobot LearningRehabilitation EngineeringHealth SciencesRoboticsRobotic TechnologySurface ElectromyographyRobotic SensingMechatronicsRehabilitationSignal ProcessingBrain-computer InterfaceMotion ControlRobot ControlMechanical SystemsWearable RoboticsElectromyographyAssistive RobotFine Motor Control
Surface electromyography (sEMG) is a promising technology that can capture muscle activation signals to control robots through novel human–machine interfaces (HMIs). This technology has already been applied in scenarios such as prosthetic design, assisted robot control, and rehabilitation training. This article provides an overview of sEMG-based robot control, covering two important aspects: (1) sEMG signal processing and classification methods and (2) robot control strategies and methods based on sEMG. First, the article outlines the general steps in sEMG signal processing and summarizes the commonly used methods for data acquisition, pre-processing, and feature extraction. In addition, machine-learning-based pattern recognition methods have been introduced for sEMG signal classification. Subsequently, user intent-based robot control strategies are classified into three categories: full-human continuous control, semi-autonomous continuous control, and discrete control, and their control methods and applicable scenarios are compared. Finally, this article discusses the advantages, disadvantages, and future development prospects of sEMG-based robot control. This review provides a comprehensive overview of sEMG-based robot control, from signal processing and classification methods to robot control strategies and methods, aiming to guide future research on selecting filters, feature sets, and pattern recognition methods and to assist in establishing sEMG-driven robot control frameworks.
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