Stiffness of cervical spine after hybrid fusion

Cervical spondylosis also known as arthritis of the neck, is the degeneration of the joints in the neck. This degenerative disorder is becoming increasingly more common as people age. For patients suffering from such disorders, there are a few options of treatment available such as drug and therapeu...

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Main Author: Luqman Abdul Halim Lim
Other Authors: Chou Siaw Meng
Format: Final Year Project
Language:English
Published: 2014
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Online Access:http://hdl.handle.net/10356/60256
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-602562023-03-04T18:58:56Z Stiffness of cervical spine after hybrid fusion Luqman Abdul Halim Lim Chou Siaw Meng School of Mechanical and Aerospace Engineering DRNTU::Engineering::Mechanical engineering::Surgical assistive technology Cervical spondylosis also known as arthritis of the neck, is the degeneration of the joints in the neck. This degenerative disorder is becoming increasingly more common as people age. For patients suffering from such disorders, there are a few options of treatment available such as drug and therapeutic treatment. Surgical treatments are most likely to be considered for patients whose quality of life is significantly affected. A new spinal fusion technique, known as hybrid fusion, is a combination of spinal fusion and total disc replacement (TDR). Unlike the simple spinal fusion technique, the risk of adjacent level degeneration and instability, movement restriction and pain in the post-operative period is minimised. However, there are different combinations for hybrid fusion and their behaviour have not been studied. The aim of this project to improve the three dimensional (3D) finite element (FE) model of the C3-T1 cervical spine generated by the previous final year project student. The model is then used for investigating of the behaviour of a fusion model with a fused C5-C6 level, and three different combinations of hybrid fusion (HFBotTDR, HFTopTDR, and HFBiTDR). A concept study to compare between the models found that the HFTopTDR model is the best option for hybrid fusion as it minimises hypermobility from occurring in the non-operated segments of the spine. The option is also cost effective as it uses only one artificial disc when compared to the HFBiTDR model, which produces almost similar results in C3-T1 range of motion with two artificial discs. The HFBotTDR model displays similar motion effects to the fusion model at C4-C5 level which could lead to long term adjacent segment disorders. Due to the deformities found in the intact spine model which could be traced back to the CT datasets used, the future work of the study may require the acquisition of a new set of CT data to generate the spine model. Bachelor of Engineering (Mechanical Engineering) 2014-05-26T04:07:50Z 2014-05-26T04:07:50Z 2014 2014 Final Year Project (FYP) http://hdl.handle.net/10356/60256 en Nanyang Technological University 128 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering::Mechanical engineering::Surgical assistive technology
spellingShingle DRNTU::Engineering::Mechanical engineering::Surgical assistive technology
Luqman Abdul Halim Lim
Stiffness of cervical spine after hybrid fusion
description Cervical spondylosis also known as arthritis of the neck, is the degeneration of the joints in the neck. This degenerative disorder is becoming increasingly more common as people age. For patients suffering from such disorders, there are a few options of treatment available such as drug and therapeutic treatment. Surgical treatments are most likely to be considered for patients whose quality of life is significantly affected. A new spinal fusion technique, known as hybrid fusion, is a combination of spinal fusion and total disc replacement (TDR). Unlike the simple spinal fusion technique, the risk of adjacent level degeneration and instability, movement restriction and pain in the post-operative period is minimised. However, there are different combinations for hybrid fusion and their behaviour have not been studied. The aim of this project to improve the three dimensional (3D) finite element (FE) model of the C3-T1 cervical spine generated by the previous final year project student. The model is then used for investigating of the behaviour of a fusion model with a fused C5-C6 level, and three different combinations of hybrid fusion (HFBotTDR, HFTopTDR, and HFBiTDR). A concept study to compare between the models found that the HFTopTDR model is the best option for hybrid fusion as it minimises hypermobility from occurring in the non-operated segments of the spine. The option is also cost effective as it uses only one artificial disc when compared to the HFBiTDR model, which produces almost similar results in C3-T1 range of motion with two artificial discs. The HFBotTDR model displays similar motion effects to the fusion model at C4-C5 level which could lead to long term adjacent segment disorders. Due to the deformities found in the intact spine model which could be traced back to the CT datasets used, the future work of the study may require the acquisition of a new set of CT data to generate the spine model.
author2 Chou Siaw Meng
author_facet Chou Siaw Meng
Luqman Abdul Halim Lim
format Final Year Project
author Luqman Abdul Halim Lim
author_sort Luqman Abdul Halim Lim
title Stiffness of cervical spine after hybrid fusion
title_short Stiffness of cervical spine after hybrid fusion
title_full Stiffness of cervical spine after hybrid fusion
title_fullStr Stiffness of cervical spine after hybrid fusion
title_full_unstemmed Stiffness of cervical spine after hybrid fusion
title_sort stiffness of cervical spine after hybrid fusion
publishDate 2014
url http://hdl.handle.net/10356/60256
_version_ 1759856902169165824