Yadav Drishti, Veer Karan
Faculty of Informatics, Technische Universität Wien, Vienna, Austria.
Department of Instrumentation and Control Engineering, DR BR Ambedkar National Institute of Technology, Jalandhar, Punjab India.
Biomed Eng Lett. 2023 Apr 22;13(3):353-373. doi: 10.1007/s13534-023-00281-z. eCollection 2023 Aug.
Surface electromyography (sEMG) meets extensive applications in the field of prosthesis in the current period. The effectiveness of sEMG in prosthesis applications has been verified by numerous revolutionary developments and extensive research attempts. A large volume of research and literature works have explored and validated the vast use of these signals in prostheses as an assistive technology. The objective of this paper is to conduct a systematic review and offer a detailed overview of the work record in the prosthesis and myoelectric interfaces framework. This review utilized a systematic search strategy to identify published articles discussing the state-of-the-art applications of sEMG in prostheses (including upper limb prosthesis and lower limb prostheses). Relevant studies were identified using electronic databases such as PubMed, IEEE Explore, SCOPUS, ScienceDirect, Google Scholar and Web of Science. Out of 3791 studies retrieved from the databases, 188 articles were found to be potentially relevant (after screening of abstracts and application of inclusion-exclusion criteria) and included in this review. This review presents an investigative analysis of sEMG-based prosthetic applications to assist the readers in making further advancements in this field. It also discusses the fundamental advantages and disadvantages of using sEMG in prosthetic applications. It also includes some important guidelines to follow in order to improve the performance of sEMG-based prosthesis. The findings of this study support the widespread use of sEMG in prosthetics. It is concluded that sEMG-based prosthesis technology, still in its sprouting phase, requires significant explorations for further development. Supplementary investigations are necessary in the direction of making a seamless mechanism of biomechatronics for sEMG-based prosthesis by cohesive efforts of robotic researchers and biomedical engineers.
表面肌电图(sEMG)在当前假肢领域有着广泛的应用。sEMG在假肢应用中的有效性已通过众多革命性进展和广泛的研究尝试得到验证。大量的研究和文献著作探讨并验证了这些信号在假肢作为辅助技术方面的广泛用途。本文的目的是进行系统综述,并详细概述假肢和肌电接口框架中的工作记录。本综述采用系统搜索策略来识别已发表的讨论sEMG在假肢(包括上肢假肢和下肢假肢)中的最新应用的文章。使用电子数据库如PubMed、IEEE Explore、SCOPUS、ScienceDirect、谷歌学术和科学网来识别相关研究。从数据库中检索到的3791项研究中,发现188篇文章可能相关(在摘要筛选和应用纳入排除标准之后)并纳入本综述。本综述对基于sEMG的假肢应用进行了调查分析,以帮助读者在该领域取得进一步进展。它还讨论了在假肢应用中使用sEMG的基本优缺点。它还包括一些为提高基于sEMG的假肢性能而应遵循的重要指导方针。本研究结果支持sEMG在假肢中的广泛应用。得出的结论是,基于sEMG的假肢技术仍处于萌芽阶段,需要大量探索以进一步发展。通过机器人研究人员和生物医学工程师的共同努力,朝着为基于sEMG的假肢建立无缝生物机电一体化机制的方向进行补充研究是必要的。