Finite Element Analysis and Material Selection of 3D-Printed External Metacarpal Fixator Clamp

Leif Oliver B. Coronado, Ulysses B. Ante, Johann Rafael Biscocho, Carlos Emmanuel Garcia, Joseph Alfred V. Garcia, Alvin M. Buison, Fred P. Liza, Denise Daryl A. Florante, Jose Bernardo L. Padaca III, Eduardo Magdaluyo Jr, Nathaniel S. Orillaza, Jr., Emmanuel P. Estrella
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Abstract

One of the most common orthopedic injuries is fracture found on the metacarpal bones of the hand. It is composed of 14-28 % emergency room cases in hospitals. Despite its frequent occurrence, they are often neglected which may lead to major disability or deformity that limits movement. This is merely due to the high cost of treatment which includes the usage of an external metacarpal fixator. In this paper, an external metacarpal fixator clamp with additive manufacturing polymer material is evaluated based on scenarios of flexural and compressive load on the metacarpal bone with simulated fracture. The material is selected using Technique for Order Preference by Similarity to Ideal Solution (TOPSIS) multi-attribute decision making. Finite Element Analysis (FEA) is also done with increasing load per scenario. The result shows nylon as a suitable polymer additive manufacturing material for external metacarpal fixator. The equivalent stress on the fixator clamp and the deformation at a maximum load of 120 N is less than 1 Mpa and 0.5 mm, respectively. This comprises the suitability of 3D printed polymer material for an external metacarpal application. Future studies of comparison of FEA simulation and actual 3D printed part is recommended.
3d打印掌骨外固定钳的有限元分析及材料选择
最常见的骨科损伤之一是手部掌骨骨折。它由14- 28%的医院急诊室病例组成。尽管它经常发生,但它们经常被忽视,这可能导致严重的残疾或畸形,限制了运动。这仅仅是因为高昂的治疗费用,包括使用掌骨外固定架。本文在模拟掌骨骨折的弯曲和压缩载荷情况下,对一种增材制造聚合物材料的掌骨外固定钳进行了评估。采用TOPSIS (Order Preference by Similarity to Ideal Solution)多属性决策方法选择材料。有限元分析(FEA)也可以在每个场景增加载荷的情况下进行。结果表明,尼龙是一种较理想的聚合物增材制造材料。固定钳上的等效应力小于1 Mpa,最大载荷为120 N时的变形小于0.5 mm。这包括用于掌骨外部应用的3D打印聚合物材料的适用性。建议今后进行有限元模拟与实际3D打印部件的比较研究。
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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