Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology

The movement of the cervical spine should be restricted throughout the rehabilitation phase after it has been injured. Cervical orthosis is commonly utilized in clinical settings to guarantee cervical spine stability. However, to date, the investigations are limited to patient-specific cervical fixa...

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Main Authors: Yangyang Xu, Xiangyu Li, Yafei Chang, Yi Wang, Lifang Che, Guopeng Shi, Xiaofen Niu, Haiyan Wang, Xiaohe Li, Yujie He, Baoqing Pei, Guoqiang Wei
Format: Article
Language:English
Published: Wiley 2022-01-01
Series:Applied Bionics and Biomechanics
Online Access:http://dx.doi.org/10.1155/2022/8243128
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author Yangyang Xu
Xiangyu Li
Yafei Chang
Yi Wang
Lifang Che
Guopeng Shi
Xiaofen Niu
Haiyan Wang
Xiaohe Li
Yujie He
Baoqing Pei
Guoqiang Wei
author_facet Yangyang Xu
Xiangyu Li
Yafei Chang
Yi Wang
Lifang Che
Guopeng Shi
Xiaofen Niu
Haiyan Wang
Xiaohe Li
Yujie He
Baoqing Pei
Guoqiang Wei
author_sort Yangyang Xu
collection DOAJ
description The movement of the cervical spine should be restricted throughout the rehabilitation phase after it has been injured. Cervical orthosis is commonly utilized in clinical settings to guarantee cervical spine stability. However, to date, the investigations are limited to patient-specific cervical fixation orthoses. This study provides a new idea for making personalized orthoses. The CT data of the patient’s cervical spine were collected, then mimics were used for reconstructing the skin of the cervical spine, the Geomagic Studio was used for surface fitting, the Inspire Studio was used for structural topology optimization, redundant structures were removed, the resulting orthotics were postprocessed, and finally, it was printed with a 3D printer. No signs of pain or discomfort were observed during the wearing. The cervical spine range of motion in flexion, extension, lateral flexion, and rotation is all less than 8° after using the device. Low cost, quick manufacturing time, high precision, attractive appearance, lightweight structure, waterproof design, and practical customized orthotics for patients are all advantages of 3D printing technology in the field of orthopedics. Many possible benefits of using 3D printing to build new orthotics include unique design, stiffness, weight optimization, and improved biomechanical performance, comfort, and fit. Personalized orthotics may be designed and manufactured utilizing 3D printing technology.
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institution Kabale University
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spelling doaj-art-a8a0360495764aa9987c8b5845e579472025-02-03T01:22:57ZengWileyApplied Bionics and Biomechanics1754-21032022-01-01202210.1155/2022/8243128Design of Personalized Cervical Fixation Orthosis Based on 3D Printing TechnologyYangyang Xu0Xiangyu Li1Yafei Chang2Yi Wang3Lifang Che4Guopeng Shi5Xiaofen Niu6Haiyan Wang7Xiaohe Li8Yujie He9Baoqing Pei10Guoqiang Wei11Key Laboratory for Biomechanics and Mechanobiology of the Ministry of EducationGuilin Detachment of the Chinese People’s Armed Police ForceDepartment of Rehabilitation MedicineDepartment of Rehabilitation MedicineDepartment of Rehabilitation MedicineDepartment of Rehabilitation MedicineDepartment of Rehabilitation MedicineDepartment of AnatomyDepartment of AnatomyDepartment of AnatomyKey Laboratory for Biomechanics and Mechanobiology of the Ministry of EducationDepartment of Rehabilitation MedicineThe movement of the cervical spine should be restricted throughout the rehabilitation phase after it has been injured. Cervical orthosis is commonly utilized in clinical settings to guarantee cervical spine stability. However, to date, the investigations are limited to patient-specific cervical fixation orthoses. This study provides a new idea for making personalized orthoses. The CT data of the patient’s cervical spine were collected, then mimics were used for reconstructing the skin of the cervical spine, the Geomagic Studio was used for surface fitting, the Inspire Studio was used for structural topology optimization, redundant structures were removed, the resulting orthotics were postprocessed, and finally, it was printed with a 3D printer. No signs of pain or discomfort were observed during the wearing. The cervical spine range of motion in flexion, extension, lateral flexion, and rotation is all less than 8° after using the device. Low cost, quick manufacturing time, high precision, attractive appearance, lightweight structure, waterproof design, and practical customized orthotics for patients are all advantages of 3D printing technology in the field of orthopedics. Many possible benefits of using 3D printing to build new orthotics include unique design, stiffness, weight optimization, and improved biomechanical performance, comfort, and fit. Personalized orthotics may be designed and manufactured utilizing 3D printing technology.http://dx.doi.org/10.1155/2022/8243128
spellingShingle Yangyang Xu
Xiangyu Li
Yafei Chang
Yi Wang
Lifang Che
Guopeng Shi
Xiaofen Niu
Haiyan Wang
Xiaohe Li
Yujie He
Baoqing Pei
Guoqiang Wei
Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology
Applied Bionics and Biomechanics
title Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology
title_full Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology
title_fullStr Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology
title_full_unstemmed Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology
title_short Design of Personalized Cervical Fixation Orthosis Based on 3D Printing Technology
title_sort design of personalized cervical fixation orthosis based on 3d printing technology
url http://dx.doi.org/10.1155/2022/8243128
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