液体和油脂润滑剂中铜铝减摩气体热涂层的摩擦技术特性

IF 0.5 4区 工程技术 Q4 ENGINEERING, MECHANICAL
A. N. Grigorchik, V. A. Kukareko, M. A. Belotserkovsky, A. V. Sosnovskiy, E. V. Astrashab
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引用次数: 0

摘要

摘要--研究了铝合金 AlSi12、焊接青铜 CuSi3Mn1 以及复合材料 CuSi3Mn1 + AlSi12 和离心感应堆焊获得的青铜 CuSn10P1 涂层的抗摩擦气热涂层的结构相态和摩擦技术性能。结果表明,喷涂后的 CuSi3Mn1 + AlSi12 复合气热涂层包括 Cu、Al、Cu9Al4、CuAl2、Cu3Al、Si 和 Al2O3 相。青铜夹层的基体相掺杂了铝,而铝夹层则掺杂了铜。研究证实,在 175 和 225°С 温度下对 CuSi3Mn1 + AlSi12 涂层进行 2 小时退火处理,会使涂层中释放出更多的金属间化合物,并提高涂层的显微硬度。研究表明,与 CuSn10P1 青铜涂层相比,复合气热涂层在 I-20A 和 Litol-24 润滑油环境下的耐磨性≈1.2-1.7 倍。与初始状态相比,退火处理 CuSi3Mn1 + AlSi12 复合涂层可使其在 I-20A 液体润滑剂环境中的耐磨性提高 30%,在 Litol-24 环境中的耐磨性提高 20%。在 I-20A 润滑剂环境中,所有铜基减摩涂层的摩擦系数均不超过 0.08,而在 Litol-24 润滑剂环境中,摩擦系数均不超过 0.10。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Tribotechnical Properties of Cu–Al Antifriction Gas Thermal Coatings in Liquid and Grease Lubricants

Tribotechnical Properties of Cu–Al Antifriction Gas Thermal Coatings in Liquid and Grease Lubricants

Tribotechnical Properties of Cu–Al Antifriction Gas Thermal Coatings in Liquid and Grease Lubricants

The study of the structural-phase state and tribotechnical properties of antifriction gas-thermal coatings made of aluminum alloy AlSi12, welding bronze CuSi3Mn1, as well as composite material CuSi3Mn1 + AlSi12 and a coating of bronze CuSn10P1 obtained by centrifugal induction surfacing was carried out. It is shown that composite gas-thermal coatings from CuSi3Mn1 + AlSi12 after spraying include Cu, Al, Cu9Al4, CuAl2, Cu3Al, Si, and Al2O3 phases. The matrix phase of the bronze interlayers is doped with aluminum, while the Al interlayers are doped with copper. It has been established that annealing of coatings CuSi3Mn1 + AlSi12 at temperatures of 175 and 225°С for 2 h leads to the release of an additional amount of intermetallic compounds in them and an increase in their microhardness. It is shown that composite gas-thermal coatings have ≈1.2–1.7 times higher wear resistance in the environment of I-20A and Litol-24 lubricants compared to coatings of CuSn10P1 bronze. Annealing of composite coatings from CuSi3Mn1 + AlSi12 leads to an increase in their wear resistance in the environment of I-20A liquid lubricant up to 30% and Litol-24 up to 20% compared to the initial state. The coefficients of friction of all antifriction coatings based on copper in the environment of the I-20A lubricant did not exceed 0.08, and in the environment of the Litol-24 lubricant, 0.10.

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来源期刊
Journal of Friction and Wear
Journal of Friction and Wear ENGINEERING, MECHANICAL-MATERIALS SCIENCE, MULTIDISCIPLINARY
CiteScore
1.50
自引率
28.60%
发文量
21
审稿时长
6-12 weeks
期刊介绍: Journal of Friction and Wear is intended to bring together researchers and practitioners working in tribology. It provides novel information on science, practice, and technology of lubrication, wear prevention, and friction control. Papers cover tribological problems of physics, chemistry, materials science, and mechanical engineering, discussing issues from a fundamental or technological point of view.
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