氧化反应诱导类金刚石碳低摩擦机理的计算研究

S. Bai, Jingxiang Xu, Y. Higuchi, N. Ozawa, K. Adachi, S. Mori, K. Kurihara, M. Kubo
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引用次数: 0

摘要

水润滑因其低二氧化碳排放而受到环境友好型社会的关注。此外,类金刚石(DLC)等碳基材料在预滑动过程中由于表面氧化反应而表现出较低的水润滑摩擦性能。然而,氧化反应对低摩擦机理的影响尚不清楚。本研究通过第一性原理计算阐明了DLC在预滑过程中氧化反应的结构变化,揭示了DLC在水润滑中的低摩擦机理。结果表明,表面氧化反应使sp3碳(Csp3)结构转变为sp2碳(Csp2)结构。此外,富Csp2表面在水润滑中表现出光滑的滑动。我们认为Csp3到Csp2的结构变化会影响DLC在水润滑中的低摩擦性能。
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Computational study on low friction mechanism of diamond-like carbon induced by oxidation reaction
Water lubrication has been attracting attention for environment-friendly society due to low CO2 emission. Furthermore, carbon-based materials such as diamond-like carbon (DLC) show the low friction properties in water lubrication due to the oxidation reaction on the surface in pre-sliding. However, the influence of oxidation reactions on low friction mechanism is still unclear. In this study, we clarify the structure change of DLC with the oxidation reaction in the pre-sliding using first-principles calculation, which suggests the low friction mechanism of DLC in water lubrication. The results show the structure change from sp3 carbon (Csp3) to sp2 carbon (Csp2) by the oxidation reaction on the surface. Furthermore, the Csp2 rich surface in water lubrication indicates the smooth sliding. We suggest that the structure change from Csp3 to Csp2 would affect low friction properties of DLC in water lubrication.
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