尖晶石
涂层
材料科学
合金
烧结
化学工程
冶金
电导率
热稳定性
复合材料
化学
物理化学
工程类
作者
Yong Shao,Huaiyong Zhu,Xue Zhang,Pingyi Guo,Chao Qin,K. Wang,Youwan Wang,Zhiwei He,D.P. Wang,Lanlan Yang,Ning Liu,Zejiao Dong
标识
DOI:10.1016/j.surfcoat.2024.130507
摘要
The diversified MnCoCuFe coatings can enhance the thermal growth stability and sintering property of spinel, and the multicomponent spinel exhibits good high temperature conductivity. The oxidation products of seven composite alloy coatings at 750 °C, CoNi(Fe), CoMn(Fe), CoMnCu(Fe), MnCu(Fe), MnCuCo(Fe), CuCoMn(Fe) and CuCo(Fe) coatings, were discussed in details. Due to differences in the elements and their concentrations in the designed coatings, some coatings could produce spinel, while others did not. The designed CuCo(Fe) coating and CuCoMn(Fe) coating prepared by electrodeposition in this study with the concentration ratio approximately nCu:nCo:nMn≈1:1:1. The oxidation reaction equations for the CuCoMnFe coating and CuCoFe coating at 750 °C were discussed. CoFe2O4 spinel was preferentially formed in the CuCoFe coating and CuMn2O4 spinel was preferentially formed in the CuCoMnFe coating. Both coatings demonstrated the good high-temperature oxidation resistance and high-temperature electrical conductivity.
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