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用于口腔正畸微种植体的纳米结构化强烈塑性变形处理钛

Nanostructured severe plastic deformation processed titanium for orthodontic mini-implants.

机构信息

Fluminense Federal University - Nova Friburgo, Rio de Janeiro, Brazil.

出版信息

Mater Sci Eng C Mater Biol Appl. 2013 Oct;33(7):4197-202. doi: 10.1016/j.msec.2013.06.012. Epub 2013 Jun 18.

DOI:10.1016/j.msec.2013.06.012
PMID:23910333
Abstract

Titanium mini-implants have been successfully used as anchorage devices in Orthodontics. Commercially pure titanium (cpTi) was recently replaced by Ti-6Al-4V alloy as the mini-implant material base due to the higher strength properties of the alloy. However, the lower corrosion resistance and the lower biocompatibility have been lowering the success rate of Ti-6Al-4V mini-implants. Nanostructured titanium (nTi) is commercially pure titanium that was nanostructured by a specific technique of severe plastic deformation. It is bioinert, does not contain potentially toxic or allergic additives, and has higher specific strength properties than any other titanium applied in medical implants. The higher strength properties associated to the higher biocompatibility make nTi potentially useful for orthodontic mini-implant applications, theoretically overcoming cpTi and Ti-6Al-4V mini-implants. The purposes of the this work were to process nTi, to mechanically compare cpTi, Ti-6Al-4V, and nTi mini-implants by torque test, and to evaluate both the surface morphology and the fracture surface characteristics of them by SEM. Torque test results showed significant increase in the maximum torque resistance of nTi mini-implants when compared to cpTi mini-implants, and no statistical difference between Ti-6Al-4V and nTi mini-implants. SEM analysis demonstrated smooth surface morphology and transgranular fracture aspect for nTi mini-implants. Since nanostructured titanium mini-implants have mechanical properties comparable to titanium alloy mini-implants, and biocompatibility comparable to commercially pure titanium mini-implants, it is suggestive that nanostructured titanium can replace Ti-6Al-4V alloy as the material base for mini-implants.

摘要

钛微型种植体已成功地用作正畸学中的锚固装置。由于合金的强度更高,商业纯钛(cpTi)最近已被 Ti-6Al-4V 合金取代,成为微型种植体材料的基础。然而,合金较低的耐腐蚀性和生物相容性降低了 Ti-6Al-4V 微型种植体的成功率。纳米结构钛(nTi)是商业纯钛,通过一种特殊的剧烈塑性变形技术进行了纳米结构化处理。它是生物惰性的,不含有潜在毒性或过敏的添加剂,并且比应用于医疗植入物的任何其他钛都具有更高的比强度。更高的强度特性与更高的生物相容性相结合,使 nTi 有可能用于正畸微型种植体应用,从理论上克服了 cpTi 和 Ti-6Al-4V 微型种植体。本工作的目的是加工 nTi,通过扭矩测试对 cpTi、Ti-6Al-4V 和 nTi 微型种植体进行机械比较,并通过 SEM 评估它们的表面形貌和断裂表面特征。扭矩测试结果表明,与 cpTi 微型种植体相比,nTi 微型种植体的最大抗扭阻力显著增加,而 Ti-6Al-4V 和 nTi 微型种植体之间没有统计学差异。SEM 分析表明,nTi 微型种植体具有光滑的表面形貌和穿晶断裂特征。由于纳米结构钛微型种植体具有与钛合金微型种植体相当的机械性能,并且与商业纯钛微型种植体相当的生物相容性,因此纳米结构钛可以替代 Ti-6Al-4V 合金作为微型种植体的材料基础。

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