IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT
The hip joint that connects the femur to the pelvic bone will degenerate with time. Some cases require hip joint replacement surgery with prosthetic implants to restore hip joint function so that the patient will be able to return to normal activities. However, there are still many cases of patie...
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id-itb.:685902022-09-16T15:02:07ZIMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT Senna, Muhammad Indonesia Final Project implant, hip, design, topology optimization, stiffness INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/68590 The hip joint that connects the femur to the pelvic bone will degenerate with time. Some cases require hip joint replacement surgery with prosthetic implants to restore hip joint function so that the patient will be able to return to normal activities. However, there are still many cases of patients who needed to undergo revision surgery so that the prosthetic implant attached to the patient's hip can function properly. Therefore, the hip implant design needs to be optimized. The optimization method used in this research is topology optimization, a mathematical approach to determine the optimal material distribution by maximizing the stiffness of the object. The hip implant topology optimization uses a two-dimensional program, namely PolyMesher as the mesh generator and PolyMat as the topology optimization program with varying the force direction. Topology optimization is carried out in three variations, there are common topology optimization, topology optimization with passive regions, and topology optimization with local volume constraints. The three variations will be compared the optimal implant design will be obtained. Based on this study, the first variation (common topology optimization) is the most optimal design with a maximum stiffness reduction of 12% at 50% volume reduction. The second variation (topology optimization with passive region) reduces the maximum stiffness by 27% and the third variation (topology optimization with local volume constraints) reduces the maximum stiffness by 84%. This study also displays the results of design optimization in each direction of the force given to each variation of topology optimization. text |
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The hip joint that connects the femur to the pelvic bone will degenerate with time. Some
cases require hip joint replacement surgery with prosthetic implants to restore hip joint
function so that the patient will be able to return to normal activities. However, there are still
many cases of patients who needed to undergo revision surgery so that the prosthetic implant
attached to the patient's hip can function properly. Therefore, the hip implant design needs to
be optimized.
The optimization method used in this research is topology optimization, a mathematical
approach to determine the optimal material distribution by maximizing the stiffness of the
object. The hip implant topology optimization uses a two-dimensional program, namely
PolyMesher as the mesh generator and PolyMat as the topology optimization program with
varying the force direction. Topology optimization is carried out in three variations, there are
common topology optimization, topology optimization with passive regions, and topology
optimization with local volume constraints. The three variations will be compared the optimal
implant design will be obtained.
Based on this study, the first variation (common topology optimization) is the most
optimal design with a maximum stiffness reduction of 12% at 50% volume reduction. The
second variation (topology optimization with passive region) reduces the maximum stiffness
by 27% and the third variation (topology optimization with local volume constraints) reduces
the maximum stiffness by 84%. This study also displays the results of design optimization in
each direction of the force given to each variation of topology optimization.
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format |
Final Project |
author |
Senna, Muhammad |
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Senna, Muhammad IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT |
author_facet |
Senna, Muhammad |
author_sort |
Senna, Muhammad |
title |
IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT |
title_short |
IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT |
title_full |
IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT |
title_fullStr |
IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT |
title_full_unstemmed |
IMPLEMENTATION OF TOPOLOGY OPTIMIZATION IN 2D HIP IMPLANT USING POLYMAT |
title_sort |
implementation of topology optimization in 2d hip implant using polymat |
url |
https://digilib.itb.ac.id/gdl/view/68590 |
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