Voluntary Movement Controlled by the Surface EMG Signal for Tissue-Engineered Skeletal Muscle on a Gripping Tool
We have developed a living prosthesis consisting of a living muscle-powered device, which is controlled by neuronal signals to recover some of the functions of a lost extremity. A tissue-engineered skeletal muscle was fabricated with two anchorage points from a primary rat myoblast cultured in a col...
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| Published in | Tissue engineering. Part A Vol. 19; no. 15-16; pp. 1695 - 1703 |
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| Main Authors | , , , |
| Format | Journal Article |
| Language | English |
| Published |
United States
Mary Ann Liebert, Inc
01.08.2013
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| Subjects | |
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| Abstract | We have developed a living prosthesis consisting of a living muscle-powered device, which is controlled by neuronal signals to recover some of the functions of a lost extremity. A tissue-engineered skeletal muscle was fabricated with two anchorage points from a primary rat myoblast cultured in a collagen Matrigel mixed gel. Differentiation to the skeletal muscle was confirmed in the tissue-engineered skeletal muscle, and the contraction force increased with increasing frequency of electric stimulation. Then, the tissue-engineered skeletal muscle was assembled into a gripper-type microhand. The tissue-engineered skeletal muscle of the microhand was stimulated electrically, which was then followed by the voluntary movement of the subject's hand. The signal of the surface electromyogram from a subject was processed to mimic the firing spikes of a neuromuscular junction to control the contraction of the tissue-engineered skeletal muscle. The tele-operation of the microhand was demonstrated by optical microscope observations. |
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| AbstractList | We have developed a living prosthesis consisting of a living muscle-powered device, which is controlled by neuronal signals to recover some of the functions of a lost extremity. A tissue-engineered skeletal muscle was fabricated with two anchorage points from a primary rat myoblast cultured in a collagen Matrigel mixed gel. Differentiation to the skeletal muscle was confirmed in the tissue-engineered skeletal muscle, and the contraction force increased with increasing frequency of electric stimulation. Then, the tissue-engineered skeletal muscle was assembled into a gripper-type microhand. The tissue-engineered skeletal muscle of the microhand was stimulated electrically, which was then followed by the voluntary movement of the subject's hand. The signal of the surface electromyogram from a subject was processed to mimic the firing spikes of a neuromuscular junction to control the contraction of the tissue-engineered skeletal muscle. The tele-operation of the microhand was demonstrated by optical microscope observations.We have developed a living prosthesis consisting of a living muscle-powered device, which is controlled by neuronal signals to recover some of the functions of a lost extremity. A tissue-engineered skeletal muscle was fabricated with two anchorage points from a primary rat myoblast cultured in a collagen Matrigel mixed gel. Differentiation to the skeletal muscle was confirmed in the tissue-engineered skeletal muscle, and the contraction force increased with increasing frequency of electric stimulation. Then, the tissue-engineered skeletal muscle was assembled into a gripper-type microhand. The tissue-engineered skeletal muscle of the microhand was stimulated electrically, which was then followed by the voluntary movement of the subject's hand. The signal of the surface electromyogram from a subject was processed to mimic the firing spikes of a neuromuscular junction to control the contraction of the tissue-engineered skeletal muscle. The tele-operation of the microhand was demonstrated by optical microscope observations. We have developed a living prosthesis consisting of a living muscle-powered device, which is controlled by neuronal signals to recover some of the functions of a lost extremity. A tissue-engineered skeletal muscle was fabricated with two anchorage points from a primary rat myoblast cultured in a collagen Matrigel mixed gel. Differentiation to the skeletal muscle was confirmed in the tissue-engineered skeletal muscle, and the contraction force increased with increasing frequency of electric stimulation. Then, the tissue-engineered skeletal muscle was assembled into a gripper-type microhand. The tissue-engineered skeletal muscle of the microhand was stimulated electrically, which was then followed by the voluntary movement of the subject's hand. The signal of the surface electromyogram from a subject was processed to mimic the firing spikes of a neuromuscular junction to control the contraction of the tissue-engineered skeletal muscle. The tele-operation of the microhand was demonstrated by optical microscope observations. |
| Author | Hoshino, Takayuki Morishima, Keisuke Akiyama, Yoshitake Kabumoto, Ken-ichiro |
| Author_xml | – sequence: 1 givenname: Ken-ichiro surname: Kabumoto fullname: Kabumoto, Ken-ichiro organization: 1Department of Bio-Application and Systems Engineering, Tokyo University of Agriculture and Technology, Tokyo, Japan – sequence: 2 givenname: Takayuki surname: Hoshino fullname: Hoshino, Takayuki organization: 2Department of Mechanical Engineering, Osaka University, Osaka, Japan – sequence: 3 givenname: Yoshitake surname: Akiyama fullname: Akiyama, Yoshitake organization: 2Department of Mechanical Engineering, Osaka University, Osaka, Japan – sequence: 4 givenname: Keisuke surname: Morishima fullname: Morishima, Keisuke organization: 2Department of Mechanical Engineering, Osaka University, Osaka, Japan |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/23444880$$D View this record in MEDLINE/PubMed |
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| SubjectTerms | Animals Cells, Cultured Electromyography - methods Electrophysiology Motor ability Muscle, Skeletal - metabolism Muscle, Skeletal - physiology Muscular system Myoblasts - cytology Myoblasts - metabolism Original Original Articles Rats Rats, Wistar Signal transduction Skeletal system Surface tension Tissue Engineering - methods |
| Title | Voluntary Movement Controlled by the Surface EMG Signal for Tissue-Engineered Skeletal Muscle on a Gripping Tool |
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