Development of a neurodevice for rehabilitation and compensation of movement function
Proceeding
DOI: 10.21661/r-80148
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- Published in:
- VIII International applied research conference «Scientific studies: from theory to practice». Volume 1
- Authors:
- Silina E. V. 1 , Bogdanov E. A. 2 , Shusharina N. N. 3 , Patrushev M. V. 3 , Stupin V. A. 4
- Work direction:
- Медицинские науки
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1 SBEI of HPE "I.M. Sechenov First Moscow State Medical University" of Ministry of Healthcare of the Russian Federation
2 FSAEI of HE "Immanuel Kant Baltic Federal University"
3 Chemical-biological institute of FSAEI of HPE "Immanuel Kant Baltic Federal University"
4 SBEI of HPE "Pirogov Russian National Research Medical University" of Ministry of Health of the Russian Federation
2 FSAEI of HE "Immanuel Kant Baltic Federal University"
3 Chemical-biological institute of FSAEI of HPE "Immanuel Kant Baltic Federal University"
4 SBEI of HPE "Pirogov Russian National Research Medical University" of Ministry of Health of the Russian Federation
- APA
For citation:
Silina E. V., Bogdanov E. A., Shusharina N. N., Patrushev M. V., & Stupin V. A. (2016). Development of a neurodevice for rehabilitation and compensation of movement function. Scientific studies: from theory to practice, 1(2 (8)), 67-71. Cheboksary: SCC "Interactive plus", LLC. https://doi.org/10.21661/r-80148
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DOI: 10.21661/r-80148
Abstract
Разработано многофункциональное нейроустройство с биологической обратной связью на основе биометрических сигналов управления электромиографии (ЭМГ), электроэнцефалографии (ЭЭГ), электроокулографии, фотоплетизмографии, термометрии и двигательной активности. Проведены эксперименты каждого метода. Авторами исследована гибридизация ЭЭГ и ЭМГ сигналов, показавшее преимущество над одномодальными системами, что позволяет подключать нейроустройство к экзоскелетам для компенсации утраченной двигательной функции.
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