A novel method of multichannel surface EMG processing has been developed to compensate for the distortion in bipolar surface EMG signals due to the movement of innervation zones. The distortion of bipolar surface EMG signals was mathematically described as a filtering function. A compensating technique for such distorted bipolar surface EMG signals was developed for the brachial biceps during dynamic contractions in which the muscle length and tension change. The technique is based on multichannel surface EMG measurement, a method for estimating the movement of an innervation zone, and the inverse filtering technique. As a result, the distorted EMG signals were compensated and transformed into nearly identical waveforms, independent of the movement of the innervation zone.
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Hidekazu KANEKO, Tohru KIRYU, Yoshiaki SAITOH, "Compensation for the Distortion of Bipolar Surface EMG Signals Caused by Innervation Zone Movement" in IEICE TRANSACTIONS on Information,
vol. E79-D, no. 4, pp. 373-381, April 1996, doi: .
Abstract: A novel method of multichannel surface EMG processing has been developed to compensate for the distortion in bipolar surface EMG signals due to the movement of innervation zones. The distortion of bipolar surface EMG signals was mathematically described as a filtering function. A compensating technique for such distorted bipolar surface EMG signals was developed for the brachial biceps during dynamic contractions in which the muscle length and tension change. The technique is based on multichannel surface EMG measurement, a method for estimating the movement of an innervation zone, and the inverse filtering technique. As a result, the distorted EMG signals were compensated and transformed into nearly identical waveforms, independent of the movement of the innervation zone.
URL: https://global.ieice.org/en_transactions/information/10.1587/e79-d_4_373/_p
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@ARTICLE{e79-d_4_373,
author={Hidekazu KANEKO, Tohru KIRYU, Yoshiaki SAITOH, },
journal={IEICE TRANSACTIONS on Information},
title={Compensation for the Distortion of Bipolar Surface EMG Signals Caused by Innervation Zone Movement},
year={1996},
volume={E79-D},
number={4},
pages={373-381},
abstract={A novel method of multichannel surface EMG processing has been developed to compensate for the distortion in bipolar surface EMG signals due to the movement of innervation zones. The distortion of bipolar surface EMG signals was mathematically described as a filtering function. A compensating technique for such distorted bipolar surface EMG signals was developed for the brachial biceps during dynamic contractions in which the muscle length and tension change. The technique is based on multichannel surface EMG measurement, a method for estimating the movement of an innervation zone, and the inverse filtering technique. As a result, the distorted EMG signals were compensated and transformed into nearly identical waveforms, independent of the movement of the innervation zone.},
keywords={},
doi={},
ISSN={},
month={April},}
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TY - JOUR
TI - Compensation for the Distortion of Bipolar Surface EMG Signals Caused by Innervation Zone Movement
T2 - IEICE TRANSACTIONS on Information
SP - 373
EP - 381
AU - Hidekazu KANEKO
AU - Tohru KIRYU
AU - Yoshiaki SAITOH
PY - 1996
DO -
JO - IEICE TRANSACTIONS on Information
SN -
VL - E79-D
IS - 4
JA - IEICE TRANSACTIONS on Information
Y1 - April 1996
AB - A novel method of multichannel surface EMG processing has been developed to compensate for the distortion in bipolar surface EMG signals due to the movement of innervation zones. The distortion of bipolar surface EMG signals was mathematically described as a filtering function. A compensating technique for such distorted bipolar surface EMG signals was developed for the brachial biceps during dynamic contractions in which the muscle length and tension change. The technique is based on multichannel surface EMG measurement, a method for estimating the movement of an innervation zone, and the inverse filtering technique. As a result, the distorted EMG signals were compensated and transformed into nearly identical waveforms, independent of the movement of the innervation zone.
ER -