超弹性TiNi细丝的变形特征

E. Marchenko, G. Baigonakova, S. Gunther, O. Mamazakirov
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引用次数: 0

摘要

由于其生物相容性和与组织进行粘弹性变形的能力,可以承受数百万次的变形循环而不受破坏,ti基金属丝被广泛用于外科植入物的制造和设计。TiNi是一种自钝化材料,因为它形成一个复杂的表面氧化层,保护材料免受腐蚀,并且本身具有生物相容性。TiNi丝的功能性能是由其结构、成分和厚度决定的。本工作的目的是研究TiNi细丝随厚度变化的变形行为。对40、60、90µm不同厚度的TiNi钢丝进行单轴拉伸断裂和5次加载-卸载循环试验。结果表明,在相对应变为5-7%时,所有TiNi钢丝均表现出超弹性效应。当线材厚度从40µm增加到90µm时,马氏体剪切应力值从450增大到1200 MPa,抗拉强度从1300增大到3150 MPa。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Features of Deformation of Thin Superelastic TiNi Wire
TiNi-based wire is widely used in the manufacture of surgical implants and designs due to its biocompatibility and ability to undergo viscoelastic deformation with tissues, withstanding millions of deformation cycles without destruction. TiNi is a self-passivating material, as it forms a complex surface oxide layer that protects the material from corrosion and is itself biocompatible. The functional properties of TiNi wire are determined by the structure, composition, and thickness. The purpose of this work is to study the deformation behavior of thin TiNi wires depending on the thickness. TiNi wires of different thicknesses (40, 60, 90 µm) were tested by uniaxial tension to rupture and in the load-unload cycle (5 cycles). The results found that All TiNi wires exhibit the effect of superelasticity at a relative strain of 5-7%. With an increase in the wire thickness from 40 to 90 µm, the values of the martensitic shear stress increase from 450 to 1200 MPa and the tensile strength increases from 1300 to 3150 MPa.
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