Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method

Despite the several years of studies that have been contributed to the human knee joint in pursue of producing a failure free knee joint protheses, there are still a lot of rooms for improvement on the available prostheses. In this present study, a series of analyses on the human tibia has been c...

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Main Author: Mohamed Azmin, Nor Fadhillah
Format: Thesis
Language:English
English
Published: 2007
Online Access:http://psasir.upm.edu.my/id/eprint/5249/1/FK_2007_46.pdf
http://psasir.upm.edu.my/id/eprint/5249/
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spelling my.upm.eprints.52492013-05-27T07:21:27Z http://psasir.upm.edu.my/id/eprint/5249/ Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method Mohamed Azmin, Nor Fadhillah Despite the several years of studies that have been contributed to the human knee joint in pursue of producing a failure free knee joint protheses, there are still a lot of rooms for improvement on the available prostheses. In this present study, a series of analyses on the human tibia has been carried out. The objectives of the present study were to study effects of stress distribution on human tibia in various degrees of flexion simulating walking and squatting. The Finite Element (FE) method was adopted for the analysis. Through the finite element analyses, data concerning the stress distribution and von Misses stress during gait cycle and squatting were obtained. The results obtained were compared with those of the experimental literature for validation. The results of this present study indicated that low stress value occurs during toe-off simulation while the high stress value occurs during deep flexion with the knee is flexed 90°. The von Mises stress observed on the medial compartment during these instants were 13.85MPa and 26.84MPa respectively. The obtained average stress distribution of a gait cycle and deep flexions were 15.29MPa and 25.09MPa respectively. it is worth to note that a high stress concentration occurs at the tibial plateau, distinctively at the medial compartment. This implies that under deep flexion a possible unstable fracture will be initiated since the maximum stress allowable on the tibia is 25MPa. In conclusion, this kind of research gives a better understanding of the stress applied on the tibia by body weight that assist on designing Total Knee Replacement against failure. The result could support in the context of minimizing contact stress between the tibia bone and the tibial insert 2007 Thesis NonPeerReviewed application/pdf en http://psasir.upm.edu.my/id/eprint/5249/1/FK_2007_46.pdf Mohamed Azmin, Nor Fadhillah (2007) Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method. Masters thesis, Universiti Putra Malaysia. English
institution Universiti Putra Malaysia
building UPM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Putra Malaysia
content_source UPM Institutional Repository
url_provider http://psasir.upm.edu.my/
language English
English
description Despite the several years of studies that have been contributed to the human knee joint in pursue of producing a failure free knee joint protheses, there are still a lot of rooms for improvement on the available prostheses. In this present study, a series of analyses on the human tibia has been carried out. The objectives of the present study were to study effects of stress distribution on human tibia in various degrees of flexion simulating walking and squatting. The Finite Element (FE) method was adopted for the analysis. Through the finite element analyses, data concerning the stress distribution and von Misses stress during gait cycle and squatting were obtained. The results obtained were compared with those of the experimental literature for validation. The results of this present study indicated that low stress value occurs during toe-off simulation while the high stress value occurs during deep flexion with the knee is flexed 90°. The von Mises stress observed on the medial compartment during these instants were 13.85MPa and 26.84MPa respectively. The obtained average stress distribution of a gait cycle and deep flexions were 15.29MPa and 25.09MPa respectively. it is worth to note that a high stress concentration occurs at the tibial plateau, distinctively at the medial compartment. This implies that under deep flexion a possible unstable fracture will be initiated since the maximum stress allowable on the tibia is 25MPa. In conclusion, this kind of research gives a better understanding of the stress applied on the tibia by body weight that assist on designing Total Knee Replacement against failure. The result could support in the context of minimizing contact stress between the tibia bone and the tibial insert
format Thesis
author Mohamed Azmin, Nor Fadhillah
spellingShingle Mohamed Azmin, Nor Fadhillah
Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method
author_facet Mohamed Azmin, Nor Fadhillah
author_sort Mohamed Azmin, Nor Fadhillah
title Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method
title_short Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method
title_full Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method
title_fullStr Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method
title_full_unstemmed Stress Analysis Of The Human Tibia Knee Joint Using Finite Element Method
title_sort stress analysis of the human tibia knee joint using finite element method
publishDate 2007
url http://psasir.upm.edu.my/id/eprint/5249/1/FK_2007_46.pdf
http://psasir.upm.edu.my/id/eprint/5249/
_version_ 1643823134009196544
score 13.214268