
The present study aims to explore the stressed state of cartilage using various meniscal tear models. To perform this research, the anatomical model of the knee joint was developed and the nonlinear mechanical properties of the cartilage and meniscus were verified. The stress–strain curve of the meniscus was obtained by testing fresh tissue specimens of the human meniscus using a compression machine. The results showed that the more deteriorated meniscus had greater stiffness, but its integrity had the greatest impact on the growth of cartilage stresses. To confirm this, cases of radial, longitudinal, and complex tears were examined. The methodology and results of the study can assist in medical diagnostics for meniscus treatment and replacement.
Technology, meniscus, QH301-705.5, T, finite element method, femur, hyperelasticity, Biology (General), cartilage, tibia, Article
Technology, meniscus, QH301-705.5, T, finite element method, femur, hyperelasticity, Biology (General), cartilage, tibia, Article
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