DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION

The wrist is an essential part of the body for humans to perform various activities. The basic movements that occur in the wrist commonly involve flexion, extension, and a straight state between flexion and extension (normal). These motions can be identified by surface electromyography (sEMG) signal...

Full description

Saved in:
Bibliographic Details
Main Author: Rakhmadi, Imam
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/81581
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:81581
spelling id-itb.:815812024-07-01T13:53:24ZDEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION Rakhmadi, Imam Indonesia Final Project sEMG, Muscle Computer Interface, RMS, SVM INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/81581 The wrist is an essential part of the body for humans to perform various activities. The basic movements that occur in the wrist commonly involve flexion, extension, and a straight state between flexion and extension (normal). These motions can be identified by surface electromyography (sEMG) signals. The existence of this sEMG signal method allows humans to communicate or interact with computers through their body's muscle activity. However, the acquisition, signal processing, and motion classification of these sEMG signals are very complex. Hence, this research aims to design a sEMG signal acquisition and signal processing method for wrist motion, as well as design a classification algorithm to identify wrist motion including flexion, extension, and normal motion. This research is the initial stage of developing a muscle-computer interface system for wrist motion. The major steps in developing the muscle-computer interface of this research include data acquisition using the Cyton Board OpenBCI, signal processing, and motion classification with the support vector machine (SVM) algorithm which was performed offline and not in real time. The features used as SVM input are root mean square (RMS) features with a moving window. This research has obtained a good design for sEMG signal acquisition and signal processing so that RMS features can be extracted for classification purposes. In addition, the algorithm design for motion classification performed quite well with 90.27% accuracy, 90.61% precision, 90.17% sensitivity, and 90.27% f1-score. This shows that the muscle-computer interface has been able to classify wrist movements, including flexion, extension, and normal with a fairly high level of accuracy. Keywords: sEMG, Muscle Computer Interface, RMS, SVM text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description The wrist is an essential part of the body for humans to perform various activities. The basic movements that occur in the wrist commonly involve flexion, extension, and a straight state between flexion and extension (normal). These motions can be identified by surface electromyography (sEMG) signals. The existence of this sEMG signal method allows humans to communicate or interact with computers through their body's muscle activity. However, the acquisition, signal processing, and motion classification of these sEMG signals are very complex. Hence, this research aims to design a sEMG signal acquisition and signal processing method for wrist motion, as well as design a classification algorithm to identify wrist motion including flexion, extension, and normal motion. This research is the initial stage of developing a muscle-computer interface system for wrist motion. The major steps in developing the muscle-computer interface of this research include data acquisition using the Cyton Board OpenBCI, signal processing, and motion classification with the support vector machine (SVM) algorithm which was performed offline and not in real time. The features used as SVM input are root mean square (RMS) features with a moving window. This research has obtained a good design for sEMG signal acquisition and signal processing so that RMS features can be extracted for classification purposes. In addition, the algorithm design for motion classification performed quite well with 90.27% accuracy, 90.61% precision, 90.17% sensitivity, and 90.27% f1-score. This shows that the muscle-computer interface has been able to classify wrist movements, including flexion, extension, and normal with a fairly high level of accuracy. Keywords: sEMG, Muscle Computer Interface, RMS, SVM
format Final Project
author Rakhmadi, Imam
spellingShingle Rakhmadi, Imam
DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION
author_facet Rakhmadi, Imam
author_sort Rakhmadi, Imam
title DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION
title_short DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION
title_full DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION
title_fullStr DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION
title_full_unstemmed DEVELOPMENT OF MUSCLE-COMPUTER INTERFACE SYSTEM FOR WRIST MOTION CLASSIFICATION
title_sort development of muscle-computer interface system for wrist motion classification
url https://digilib.itb.ac.id/gdl/view/81581
_version_ 1822009519902818304