Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm

This paper deals with the statistical analysis and pattern classification of electromyographic signals from the biceps of a person with amputation below the humerus. Such signals collected from an amputation simulator are synergistically generated to produce discrete elbow movements. The purpose of...

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Main Authors: M. José H. Erazo Macias, S. Alejandro Vega
Format: Article
Language:English
Published: Hindawi Limited 2006-01-01
Series:Applied Bionics and Biomechanics
Online Access:http://dx.doi.org/10.1533/abbi.2005.0039
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spelling doaj-ce6c0b899f5a4a08a663546bec3a41612021-07-02T06:22:58ZengHindawi LimitedApplied Bionics and Biomechanics1176-23221754-21032006-01-013211311910.1533/abbi.2005.0039Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic ArmM. José H. Erazo Macias0S. Alejandro Vega1Department of Electric and Electronic Engineering, Technological Institute of Reynosa, Reynosa Tamaulipas, MexicoTechnological Institute of Superior Studies of Monterrey, Campus Queretaro, Queretaro, MexicoThis paper deals with the statistical analysis and pattern classification of electromyographic signals from the biceps of a person with amputation below the humerus. Such signals collected from an amputation simulator are synergistically generated to produce discrete elbow movements. The purpose of this study is to utilise these signals to control an electrically driven prosthetic or orthotic elbow with minimum extra mental effort on the part of the subject. The results show very good separability of classes of movements when a learning pattern classification scheme is used, and a superposition of any composite motion to the three basic primitive motions—humeral rotation in and out, flexion and extension, and pronation and supination. Since no synergy was detected for the wrist movement, different inputs have to be provided for a grip. In addition, the method described is not limited by the location of the electrodes. For amputees with shorter stumps, synergistic signals could be obtained from the shoulder muscles. However, the presentation in this paper is limited to biceps signal classification only.http://dx.doi.org/10.1533/abbi.2005.0039
collection DOAJ
language English
format Article
sources DOAJ
author M. José H. Erazo Macias
S. Alejandro Vega
spellingShingle M. José H. Erazo Macias
S. Alejandro Vega
Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm
Applied Bionics and Biomechanics
author_facet M. José H. Erazo Macias
S. Alejandro Vega
author_sort M. José H. Erazo Macias
title Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm
title_short Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm
title_full Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm
title_fullStr Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm
title_full_unstemmed Electromyographic Pattern Analysis and Classification for a Robotic Prosthetic Arm
title_sort electromyographic pattern analysis and classification for a robotic prosthetic arm
publisher Hindawi Limited
series Applied Bionics and Biomechanics
issn 1176-2322
1754-2103
publishDate 2006-01-01
description This paper deals with the statistical analysis and pattern classification of electromyographic signals from the biceps of a person with amputation below the humerus. Such signals collected from an amputation simulator are synergistically generated to produce discrete elbow movements. The purpose of this study is to utilise these signals to control an electrically driven prosthetic or orthotic elbow with minimum extra mental effort on the part of the subject. The results show very good separability of classes of movements when a learning pattern classification scheme is used, and a superposition of any composite motion to the three basic primitive motions—humeral rotation in and out, flexion and extension, and pronation and supination. Since no synergy was detected for the wrist movement, different inputs have to be provided for a grip. In addition, the method described is not limited by the location of the electrodes. For amputees with shorter stumps, synergistic signals could be obtained from the shoulder muscles. However, the presentation in this paper is limited to biceps signal classification only.
url http://dx.doi.org/10.1533/abbi.2005.0039
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