Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data

<i>Background and objectives:</i> There are no reports on articular stress distribution during walking based on any computed tomography (CT)-finite element model (CT-FEM). This study aimed to develop a calculation model of the load response (LR) phase, the most burdensome phase on the kn...

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Main Authors: Kunihiro Watanabe, Hirotaka Mutsuzaki, Takashi Fukaya, Toshiyuki Aoyama, Syuichi Nakajima, Norio Sekine, Koichi Mori
Format: Article
Language:English
Published: MDPI AG 2020-01-01
Series:Medicina
Subjects:
Online Access:https://www.mdpi.com/1010-660X/56/2/56
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spelling doaj-7329a40d26c84319adf9ffd9fade86d92020-11-25T01:45:09ZengMDPI AGMedicina1010-660X2020-01-015625610.3390/medicina56020056medicina56020056Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force DataKunihiro Watanabe0Hirotaka Mutsuzaki1Takashi Fukaya2Toshiyuki Aoyama3Syuichi Nakajima4Norio Sekine5Koichi Mori6Department of Radiology, Saitama Prefecture Saiseikai Kurihashi Hospital, Kuki, Saitama 349-1105, JapanCenter for Medical Sciences, Ibaraki Prefectural University of Health Sciences, Ami, Ibaraki 300-0394, JapanDepartment of Physical Therapy, Faculty of Health Sciences, Tsukuba International University, Tsuchiura, Ibaraki 300-0051, JapanDepartment of Physical Therapy, Ibaraki Prefectural University of Health Sciences, Ami, Ibaraki 300-0394, JapanDepartment of Radiological Sciences, Ibaraki Prefectural University of Health Sciences, Ami, Ibaraki 300-0394, JapanDepartment of Radiological Sciences, Graduate School of Human Health Sciences, Tokyo Metropolitan University, Arakawa, Tokyo 116-8551, JapanDepartment of Radiological Sciences, Ibaraki Prefectural University of Health Sciences, Ami, Ibaraki 300-0394, Japan<i>Background and objectives:</i> There are no reports on articular stress distribution during walking based on any computed tomography (CT)-finite element model (CT-FEM). This study aimed to develop a calculation model of the load response (LR) phase, the most burdensome phase on the knee, during walking using the finite element method of quantitative CT images. <i>Materials and Methods:</i> The right knee of a 43-year-old man who had no history of osteoarthritis or surgeries of the knee was examined. An image of the knee was obtained using CT and the extension position image was converted to the flexion angle image in the LR phase. The bone was composed of heterogeneous materials. The ligaments were made of truss elements; therefore, they do not generate strain during expansion or contraction and do not affect the reaction force or pressure. The construction of the knee joint included material properties of the ligament, cartilage, and meniscus. The extensor and flexor muscles were calculated and set as the muscle exercise tension around the knee joint. Ground reaction force was vertically applied to suppress the rotation of the knee, and the thigh was restrained. <i>Results:</i> An FEM was constructed using a motion analyzer, floor reaction force meter, and muscle tractive force calculation. In a normal knee, the equivalent stress and joint contact reaction force in the LR phase were distributed over a wide area on the inner upper surface of the femur and tibia. <i>Conclusions:</i> We developed a calculation model in the LR phase of the knee joint during walking using a CT-FEM. Methods to evaluate the heteromorphic risk, mechanisms of transformation, prevention of knee osteoarthritis, and treatment may be developed using this model.https://www.mdpi.com/1010-660X/56/2/56finite elementknee jointequivalent stressjoint reaction forcemusculoskeletal model
collection DOAJ
language English
format Article
sources DOAJ
author Kunihiro Watanabe
Hirotaka Mutsuzaki
Takashi Fukaya
Toshiyuki Aoyama
Syuichi Nakajima
Norio Sekine
Koichi Mori
spellingShingle Kunihiro Watanabe
Hirotaka Mutsuzaki
Takashi Fukaya
Toshiyuki Aoyama
Syuichi Nakajima
Norio Sekine
Koichi Mori
Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data
Medicina
finite element
knee joint
equivalent stress
joint reaction force
musculoskeletal model
author_facet Kunihiro Watanabe
Hirotaka Mutsuzaki
Takashi Fukaya
Toshiyuki Aoyama
Syuichi Nakajima
Norio Sekine
Koichi Mori
author_sort Kunihiro Watanabe
title Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data
title_short Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data
title_full Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data
title_fullStr Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data
title_full_unstemmed Development of a Knee Joint CT-FEM Model in Load Response of the Stance Phase During Walking Using Muscle Exertion, Motion Analysis, and Ground Reaction Force Data
title_sort development of a knee joint ct-fem model in load response of the stance phase during walking using muscle exertion, motion analysis, and ground reaction force data
publisher MDPI AG
series Medicina
issn 1010-660X
publishDate 2020-01-01
description <i>Background and objectives:</i> There are no reports on articular stress distribution during walking based on any computed tomography (CT)-finite element model (CT-FEM). This study aimed to develop a calculation model of the load response (LR) phase, the most burdensome phase on the knee, during walking using the finite element method of quantitative CT images. <i>Materials and Methods:</i> The right knee of a 43-year-old man who had no history of osteoarthritis or surgeries of the knee was examined. An image of the knee was obtained using CT and the extension position image was converted to the flexion angle image in the LR phase. The bone was composed of heterogeneous materials. The ligaments were made of truss elements; therefore, they do not generate strain during expansion or contraction and do not affect the reaction force or pressure. The construction of the knee joint included material properties of the ligament, cartilage, and meniscus. The extensor and flexor muscles were calculated and set as the muscle exercise tension around the knee joint. Ground reaction force was vertically applied to suppress the rotation of the knee, and the thigh was restrained. <i>Results:</i> An FEM was constructed using a motion analyzer, floor reaction force meter, and muscle tractive force calculation. In a normal knee, the equivalent stress and joint contact reaction force in the LR phase were distributed over a wide area on the inner upper surface of the femur and tibia. <i>Conclusions:</i> We developed a calculation model in the LR phase of the knee joint during walking using a CT-FEM. Methods to evaluate the heteromorphic risk, mechanisms of transformation, prevention of knee osteoarthritis, and treatment may be developed using this model.
topic finite element
knee joint
equivalent stress
joint reaction force
musculoskeletal model
url https://www.mdpi.com/1010-660X/56/2/56
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