Effect of strain rates on the mechanical response of whole muscle bundle

Muscle injuries frequently happen during sports activities and exercise, which could have serious consequences if not diagnosed and treated promptly. This research aims to investigate the quasi-static and dynamic responses of over 30 fresh frog semitendinosus muscles utilizing Split Hopkinson Pressu...

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Published in:Journal of biological physics 2023-06, Vol.49 (2), p.257-267
Main Authors: Tran, Dat Trong, Tsai, Liren
Format: Article
Language:English
Subjects:
Biochemistry
Biological and Medical Physics
Biomechanics
Biophysics
Complex Fluids and Microfluidics
Complex Systems
Elastic Modulus
Experiments
Legs
Materials Testing
Mechanical properties
Muscles
Muscles - physiology
Musculoskeletal system
Neurosciences
Physics
Physics and Astronomy
Soft and Granular Matter
Sports injuries
Stress, Mechanical
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description Muscle injuries frequently happen during sports activities and exercise, which could have serious consequences if not diagnosed and treated promptly. This research aims to investigate the quasi-static and dynamic responses of over 30 fresh frog semitendinosus muscles utilizing Split Hopkinson Pressure Bars (SHPB) and a material testing system under strain rates between 0.001 ~ 200 s −1 . To accommodate the special shape of muscle–tendon-bone samples, PLA clampers were produced by the 3D printer to properly hold and prevent slipping during the testing process. The mechanical characteristics of the whole muscle bundle, including Young’s modulus and stress–strain curve, are illustrated at various strain rates. The findings showed that the muscle properties were sensitive to strain rate when under passive deformation. Both maximum stress and Young’s modulus increased with the rise of strain rate, and modulus at 200 s −1 can be as high as 10 times compared with quasi-static conditions.
doi_str_mv 10.1007/s10867-023-09630-6
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This research aims to investigate the quasi-static and dynamic responses of over 30 fresh frog semitendinosus muscles utilizing Split Hopkinson Pressure Bars (SHPB) and a material testing system under strain rates between 0.001 ~ 200 s −1 . To accommodate the special shape of muscle–tendon-bone samples, PLA clampers were produced by the 3D printer to properly hold and prevent slipping during the testing process. The mechanical characteristics of the whole muscle bundle, including Young’s modulus and stress–strain curve, are illustrated at various strain rates. The findings showed that the muscle properties were sensitive to strain rate when under passive deformation. 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subjects Biochemistry
Biological and Medical Physics
Biomechanics
Biophysics
Complex Fluids and Microfluidics
Complex Systems
Elastic Modulus
Experiments
Legs
Materials Testing
Mechanical properties
Muscles
Muscles - physiology
Musculoskeletal system
Neurosciences
Physics
Physics and Astronomy
Soft and Granular Matter
Sports injuries
Stress, Mechanical
title Effect of strain rates on the mechanical response of whole muscle bundle
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