生物医学用超细晶铁锰硅合金的功能和力学特性

IF 1.8 4区 材料科学 Q2 MATERIALS SCIENCE, CHARACTERIZATION & TESTING
O. V. Rybalchenko, N. S. Martynenko, G. V. Rybalchenko, E. A. Lukyanova, V. S. Komarov, M. A. Kaplan, A. N. Belyakov, P. D. Dolzhenko, I. V. Shchetinin, A. G. Raab, S. V. Dobatkin, S. D. Prokoshkin
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引用次数: 0

摘要

本工作考察了通过等通道角压改变铁锰硅合金结构来调节其腐蚀速率的可能性。结果表明,Fe-Mn-Si合金形成的超细晶奥氏体组织使合金的强度特性显著提高,且塑性良好。Fe-Mn-Si合金中特殊孪晶边界的存在提高了其耐蚀性,而在没有孪晶边界的情况下,主要的晶粒-亚晶结构使腐蚀速率提高到0.4 mm/年。所研究合金的形状记忆效应在不适合医疗使用的温度下表现出来。在确保完全奥氏体状态的模式下,通过等通道角压来优化结构会导致形状记忆性能的降低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Functional and Mechanical Characteristics of Ultrafine-Grained Fe-Mn-Si Alloys for Biomedical Applications

Functional and Mechanical Characteristics of Ultrafine-Grained Fe-Mn-Si Alloys for Biomedical Applications

This work examines the possibility of regulating the corrosion rate of Fe-Mn-Si alloys by modifying their structure via equal channel angular pressing. It is found that the formed ultrafine-grained austenitic structure of Fe-Mn-Si alloys leads to a significant increase in strength characteristics at satisfactory ductility. The presence of special twin boundaries in the structure of Fe-Mn-Si alloys improves their corrosion resistance, while a predominantly grain-subgrain structure in the absence of twin boundaries increases the corrosion rate up to 0.4 mm/year. The shape memory effect in the studied alloys manifests itself at temperatures unacceptable for medical use. Structure refinement by equal channel angular pressing in modes that ensure a completely austenitic state leads to a decrease in shape memory properties.

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来源期刊
Physical Mesomechanics
Physical Mesomechanics Materials Science-General Materials Science
CiteScore
3.50
自引率
18.80%
发文量
48
期刊介绍: The journal provides an international medium for the publication of theoretical and experimental studies and reviews related in the physical mesomechanics and also solid-state physics, mechanics, materials science, geodynamics, non-destructive testing and in a large number of other fields where the physical mesomechanics may be used extensively. Papers dealing with the processing, characterization, structure and physical properties and computational aspects of the mesomechanics of heterogeneous media, fracture mesomechanics, physical mesomechanics of materials, mesomechanics applications for geodynamics and tectonics, mesomechanics of smart materials and materials for electronics, non-destructive testing are viewed as suitable for publication.
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