Design, analysis and development of prosthetic and orthotic elements by additive manufacturing process

Q1 Engineering
Piyush Patel, Piyush Gohil
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引用次数: 0

Abstract

According to patient needs, unique Prosthetic and Orthotic (P&O) elements are created using Additive Manufacturing (AM) without the need for part-dependent equipment. This paper presents the basic information about the element's materials, and techniques of P&O. This paper discusses the detailed procedure for designing, analyzing, and developing various P&O models. Through analysis, the result shows that the desirable values of natural frequency (3103.1 Hz), total deformation (0.00261 mm), and strain energy (0.07011 mJ) of the prosthetic foot model 1 is for carbon fiber material. Therefore, for the preparation of the foot, this material can be selected for the best performance of the prosthetic foot.
Traditionally, individual P&O devices are manufactured using plaster molds, which require multiple patient visits and take a lot of effort and time to produce. Therefore, our main attention is the process of designing and developing lightweight P&O elements quickly with a simplification of the manufacturing process. The AFO and flex foot prosthetic parts are printed using PLA material on FDM machines. The entire process takes less than 7 h, with an average hands-on time of only 10–15 min for AFO parts and about 10 h for Flex-Foot prostheses. In other words, using 3D printing to create a P&O device for a patient is significantly less time-consuming than traditional methods. In the future, it is intended to compare altered effects obtained by using various types of materials for the improvement of the P&O devices by the AM method.
利用增材制造工艺设计、分析和开发假肢和矫形元件
根据患者的需求,使用增材制造(AM)创建独特的假肢和矫形器(P&;O)元件,而无需部件相关设备。本文介绍了该元件的材料和工艺的基本情况。本文讨论了设计、分析和开发各种P&;O模型的详细过程。通过分析,结果表明,碳纤维材料的假肢足模型1的固有频率(3103.1 Hz)、总变形(0.00261 mm)和应变能(0.07011 mJ)的理想值为碳纤维材料。因此,对于假肢脚的制备,可以选择这种材料来获得最佳的假肢脚性能。传统上,单个P&;O设备是使用石膏模具制造的,这需要多次访问患者,并且需要花费大量的精力和时间来生产。因此,我们主要关注的是快速设计和开发轻量化P&;O元件的过程,并简化制造过程。AFO和柔性足假肢部件使用PLA材料在FDM机器上打印。整个过程需要不到7小时,AFO零件的平均动手时间仅为10 - 15分钟,Flex-Foot假肢的平均动手时间约为10小时。换句话说,与传统方法相比,使用3D打印技术为患者制作P&;O设备的时间要短得多。在未来,它旨在比较使用不同类型的材料所获得的改变效果,以通过AM方法改进P&;O器件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
International Journal of Lightweight Materials and Manufacture
International Journal of Lightweight Materials and Manufacture Engineering-Industrial and Manufacturing Engineering
CiteScore
9.90
自引率
0.00%
发文量
52
审稿时长
48 days
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