市售假脚正面适应性的力学测试。

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
ACS Applied Bio Materials Pub Date : 2022-09-07 eCollection Date: 2022-01-01 DOI:10.1177/20556683221123330
Matthew M Wernke, Evandro M Ficanha, Zac Thomas, Murray E Maitland, Katheryn J Allyn, Alex Albury, James Colvin
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引用次数: 1

摘要

导言:假肢脚在额平面的适应性有限。研究表明,对许多假肢使用者来说,在不平坦的地形上行走很困难。一种新的假肢足,META Arc,设计了一个多中心踝关节,允许在前平面相对自由地运动,以解决这一限制。先前对多中心踝关节机制的模拟发现了潜在的好处,如在前进过程中减少近端块的横向移动,减少从地面通过足部向上传递的力。方法:采用标准力学测试方案评估Meta Arc假肢足和6种市售同类足的性能。结果:在10度横坡试验条件下,META Arc假肢足与6只对照足相比,具有更强的正面适应能力、更小的侧向力和更小的倒转力矩。所有假肢足在矢状面能量返回百分比和动力方面都有相似的结果。结论:这些结果表明,在META弧足内植入多中心踝关节将在不牺牲向前行走性能的情况下提供更大的稳定性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Mechanical testing of frontal plane adaptability of commercially available prosthetic feet.

Mechanical testing of frontal plane adaptability of commercially available prosthetic feet.

Mechanical testing of frontal plane adaptability of commercially available prosthetic feet.

Mechanical testing of frontal plane adaptability of commercially available prosthetic feet.

Introduction: Prosthetic feet have limited adaptability in the frontal plane. Research shows walking on uneven terrain is difficult for many prosthesis users. A new prosthetic foot, the META Arc, was designed with a polycentric ankle joint that allows relatively free movement in the frontal plane to address this limitation. Previous simulations of the polycentric ankle mechanism found potential benefits such as reduced lateral movement of a proximal mass during forward progress and reduced forces being transferred upward from the ground through the foot.

Methods: Standard mechanical testing protocols were used to evaluate the Meta Arc prosthetic foot's performance and six comparable feet commercially available.

Results: The results found the META Arc prosthetic foot had increased frontal plane adaptability as well as reduced lateral forces, and reduced inversion eversion moment compared to the six comparison feet on 10-degree cross-slope test conditions. All included prosthetic feet had similar results for the percent of energy return and dynamic force in the sagittal plane.

Conclusions: These results suggest the inclusion of the polycentric ankle within the META Arc foot will provide more stability without sacrificing forward walking performance.

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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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