Ni3Al-Ni3V合金和Ni3Al-Ni3V(Zr)合金的微观组织与磨损特性Microstructure and wear characteristics of Ni3Al-Ni3V alloy and Ni3Al-Ni3V(Zr) alloy
王振生,李海星,易轶杰,谢威,宋力
摘要(Abstract):
利用扫描电镜(SEM)、X射线衍射(XRD)、透射电镜(TEM)、磨损实验和力学和能量学计算等研究了Ni_3Al-Ni_3V合金和Ni_3Al-Ni_3V(Zr)合金的微观组织和磨损机理。结果表明:Ni_3Al-Ni_3V合金的组织主要由Ni_3Al相和Ni_3Al+Ni_3V相构成,裂纹在合金磨损表面萌生,扩展方向与表面约呈18°;力学计算表明,Ni_3Al-Ni_3V合金的摩擦接触表面呈塑性接触状态,裂纹应力强度因子小于合金断裂韧性,接触应力不会导致裂纹产生;能量学计算表明,空气中的水汽与Ni_3Al-Ni_3V合金中的Ni_3Al相反应生成H,导致合金发生磨损环境致脆。Ni_3Al-Ni_3V(Zr)合金的组织主要由Ni_3Al相、Ni_3Al+Ni_3V相以及晶界处的富Zr相和Ni_5Zr相构成,Zr固溶在Ni_3Al相和Ni_3Al+Ni_3V相中;Zr抑制了Ni_3Al-Ni_3V(Zr)合金的环境脆性,合金的磨损机制为磨粒磨损和黏着磨损,磨损性能优于Ni_3Al-Ni_3V合金;Ni_3Al-Ni_3V(Zr)合金经不同工艺热处理后,可以得到具有纳米或微米尺度的Ni_3Al相,其中,具有纳米尺度的Ni_3Al相的合金的硬度高,磨损性能良好。
关键词(KeyWords): Ni_3Al-Ni_3V合金;Ni_3Al-Ni_3V(Zr)合金;磨粒磨损;环境致脆;黏着磨损
基金项目(Foundation): 湖南省自然科学基金(2020JJ4312)
作者(Author): 王振生,李海星,易轶杰,谢威,宋力
DOI: 10.13289/j.issn.1009-6264.2021-0539
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