An EMG-based Prosthetic Hand Design and Control Through Dynamic Time Warping


Abstract views: 38 / PDF downloads: 56

Authors

  • Mustafa Can KADILAR Marmara University
  • Ersin TOPTAŞ Marmara University
  • Gazi AKGÜN Marmara University

Keywords:

Biomechatronics, Myoelectric Signals,, Prosthetic Hand, Feedback Control

Abstract

This study presents a new method to control prosthetic hands by utilizing Dynamic Time
Warping (DTW) to accurately evaluate muscle contraction similarity. The objective of this research is to
offer precise grip control for individuals who require prosthetic solutions. The study focuses on whether
the implementation of the DTW algorithm can significantly improve the control accuracy and usability of
myoelectric prosthetic hands. The initial prototypes of the prosthetic hand demonstrated promising results
in achieving fundamental gripping functions through DTW-based control. The proposed prosthetic hand
design points to the importance of leveraging advanced control algorithms, such as DTW, to address the
specific needs of individuals requiring prosthetic solutions. By improving the prosthetic technology, the
study aims to provide solutions that meet the unique challenges faced by individuals who are in need of a
prosthetic hand.

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Author Biographies

Mustafa Can KADILAR, Marmara University

Mechatronics Engineering Department, Turkey

Ersin TOPTAŞ, Marmara University

Mechatronics Engineering Department, Turkey

Gazi AKGÜN, Marmara University

 Mechatronics Engineering Department, Turkey

References

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Published

2024-03-13

How to Cite

KADILAR, M. C., TOPTAŞ, E., & AKGÜN, G. (2024). An EMG-based Prosthetic Hand Design and Control Through Dynamic Time Warping. International Journal of Advanced Natural Sciences and Engineering Researches, 8(2), 339–349. Retrieved from https://as-proceeding.com/index.php/ijanser/article/view/1728

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