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具有优异硬度和润滑性能的氮化物薄膜的机理洞察:综述

Insight into the Mechanisms of Nitride Films with Excellent Hardness and Lubricating Performance: A Review.

作者信息

Wu Xinmeng, Jiang Yaohong, Wu Tianhao, Zuo Bin, Bian Shunuo, Lu Kun, Zhao Lijun, Yu Lihua, Xu Junhua

机构信息

Department of Material and Science, Jiangsu University of Science and Technology, Zhenjiang 212000, China.

Department of Medicine, Chuzhou City Vocational College, Chuzhou 239000, China.

出版信息

Nanomaterials (Basel). 2023 Jul 29;13(15):2205. doi: 10.3390/nano13152205.

Abstract

Transition metal nitride (TMN) films with excellent hardness and lubricating performance are versatile low dimension materials, which are widely used in various fields including industries, transportation, aerospace, and so on. This paper introduces one film design strategy and provides a review of the mechanisms for strengthening and lubricating nitride films. The design strategy refers to two aspects which determine the structures, the performance, the components, and the chemical constitutions of nitride films The strengthening mechanisms of nitride films are then illuminated in detail, including the solid solution effect, the grain size effect, the secondary phase effect, the stress or stress field effect, the template effect, and the valence electron concentration effect. Five lubricating mechanisms are next summarized, including the easy-shear nature, the tribo-chemical reactions, the lubricious fluorides, the textured contact surface, and the synergistic effect. This paper aims to give a comprehensive introduction for understanding the mechanisms of strengthening and lubrication of nitride films for students and researchers, as well as to understand the current research progress in nitride films for exploring research gaps.

摘要

具有优异硬度和润滑性能的过渡金属氮化物(TMN)薄膜是用途广泛的低维材料,广泛应用于工业、交通运输、航空航天等各个领域。本文介绍了一种薄膜设计策略,并综述了氮化物薄膜的强化和润滑机制。该设计策略涉及决定氮化物薄膜结构、性能、成分和化学组成的两个方面。随后详细阐述了氮化物薄膜的强化机制,包括固溶效应、晶粒尺寸效应、第二相效应、应力或应力场效应、模板效应和价电子浓度效应。接下来总结了五种润滑机制,包括易剪切特性、摩擦化学反应、润滑性氟化物、织构化接触表面和协同效应。本文旨在为学生和研究人员全面介绍氮化物薄膜的强化和润滑机制,同时了解氮化物薄膜的当前研究进展以探索研究空白。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/1ea1/10421327/e45b4f33ccb5/nanomaterials-13-02205-g001.jpg

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