生物医学用Mg-4% Zn浸润钛合金的制备与表征

A. Mohanram, K. Shankar, S. Muthukumar, A. Krishnaraj, K. Thillairajan
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摘要

钛合金在骨替代物等生物植入物的制造中起着重要作用。然而,与人骨相比,它们的弹性模量很高,生物相容性也不太好。杨氏模量的差异导致了应力屏蔽。镁合金在骨生长方面具有良好的生物相容性,但硬度较差。因此,从硬度和生物相容性的角度来看,含钛浸润镁的骨替代物更好。在这项工作中,通过增材制造生产的方形网格钛合金衬底,渗透了镁-4%锌合金。将镁渗透到钛合金的网状结构中,可以降低由这种合金组合制成的生物植入物的重量和杨氏模量。钛网中存在的镁合金可能会溶解到血液中,当它很软时可能不会促进骨骼生长。因此,对镁合金进行时效硬化热处理,以提高镁合金的强度。通过这样做,Mg-4%Zn合金的强度增加,因此镁合金能够支持骨骼生长,而不是溶解在血液中。在镁中加入锌可以提高镁合金的时效硬化能力,从而提高镁合金的强度。本工作制备了镁合金浸润钛网结构生物植入物并进行了时效硬化。然后对这些植入物的显微组织和硬度进行表征。钛合金在骨替代物等生物植入物的制造中起着重要作用。然而,与人骨相比,它们的弹性模量很高,生物相容性也不太好。杨氏模量的差异导致了应力屏蔽。镁合金在骨生长方面具有良好的生物相容性,但硬度较差。因此,从硬度和生物相容性的角度来看,含钛浸润镁的骨替代物更好。在这项工作中,通过增材制造生产的方形网格钛合金衬底,渗透了镁-4%锌合金。将镁渗透到钛合金的网状结构中,可以降低由这种合金组合制成的生物植入物的重量和杨氏模量。钛网中存在的镁合金可能会溶解到血液中,当它很软时可能不会促进骨骼生长。因此,时效硬化热处理是…
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Production and characterization of Mg-4% Zn infiltrated titanium alloy for bio medical applications
Titanium alloys play a major role in making bio-implants such as bone replacements etc. However, their elastic modulus is very high compared with human bone and also their biocompatibility is not so good. The difference in the young’s modulus leads to stress shielding. Magnesium alloys have good biocompatibility in terms of bone growth, but they are poor in stiffness. Hence, bone replacements containing a combination of titanium infiltrated with magnesium is better from the view point of both stiffness and biocompatibility. In this work, a titanium alloy substrate with square mesh, produced through additive manufacturing, is infiltrated with magnesium-4% zinc alloy. The infiltration of magnesium into the meshes of titanium alloy will reduce the weight and Young’s modulus of the bio implant produced from this alloys combination. The magnesium alloy present in the titanium meshes may dissolve into the blood and may not increase the bone growth when it is very soft. Hence, age hardening heat treatment is to be given to the magnesium alloy to increase its strength. By doing so, the strength of Mg-4%Zn alloy increased and hence the magnesium alloy could able to support the bone growth rather than dissolving in blood. The addition of zinc to the magnesium increases the age hardening ability of magnesium alloys and hence strength of the same. In this work, the magnesium alloy infiltrated titanium mesh structured bio implants were produced and age hardened. Then these implants were characterized for their microstructure and hardness.Titanium alloys play a major role in making bio-implants such as bone replacements etc. However, their elastic modulus is very high compared with human bone and also their biocompatibility is not so good. The difference in the young’s modulus leads to stress shielding. Magnesium alloys have good biocompatibility in terms of bone growth, but they are poor in stiffness. Hence, bone replacements containing a combination of titanium infiltrated with magnesium is better from the view point of both stiffness and biocompatibility. In this work, a titanium alloy substrate with square mesh, produced through additive manufacturing, is infiltrated with magnesium-4% zinc alloy. The infiltration of magnesium into the meshes of titanium alloy will reduce the weight and Young’s modulus of the bio implant produced from this alloys combination. The magnesium alloy present in the titanium meshes may dissolve into the blood and may not increase the bone growth when it is very soft. Hence, age hardening heat treatment is to ...
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