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J. Mater. Sci. Technol. 2010, 26(02) 119-124 DOI:     ISSN: 1005-0302 CN: 21-1315/TG

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Keywords
Ti(C, N)
Multilayer film
Graphite target
Authors
ZHANG Guo-Jun
LI Bin
JIANG Bai-Ling
CHEN Di-Chun
YAN Fu-Hua
PubMed
Article by Zhang,G.J
Article by Li,b
Article by Jiang,B.L
Article by Chen,D.C
Article by Yan,F.H

Microstructure and Mechanical Properties of Multilayer Ti(C, N) Films by Closed-field Unbalanced Magnetron Sputtering Ion Plating

Guojun Zhang, Bin Li, Bailing Jiang, Dichun Chen, Fuxue Yan

School of Materials Science and Engineering, Xi'an University of Technology, Xi'an 710048, China

Abstract

Ti(C, N) multilayer films have been prepared by closed-field unbalanced magnetron sputtering technology and using graphite target as the C supplier. Microstructural observation results showed that the Ti(C, N) films exhibited multilayer structure with most of fine nano-columnar Ti(C, N) grains existing in the films. The current of graphite target had an effect remarkably on the multilayer structure of films: the periodical thickness gradually increased as the current went up, but the grain size of films gradually decreased and even amorphous phase appeared as the current further increased. The microstructure of Ti(C, N) films changed from columnar crystallite to nanocomposite in high current of graphite target where the fine Ti(C, N) grains were distributed uniformly in the amorphous Ti(C, N) matrix, and the volume fraction of the amorphous phase increased with increasing current. Measurement results showed that the Ti(C, N) multilayer films have high microhardness and low friction coefficient, and especially the film  deposited in the current of 0.9 A exhibits superior properties with optimizing hardness and friction coefficient. Based on the relationship of the microstructure and the properties of films, the multilayer structure and fine grain size of Ti(C, N) films are responsible for their well mechanical and friction properties. And choosing the graphite target as the C supplier is more propitious to decrease the friction coe±cients of films.

Keywords Ti(C, N)   Multilayer film   Graphite target  
Received 2009-06-02 Revised 2009-08-11 Online: 2010-02-28 
DOI:
Fund:

the National Natural Science Foundation of China (No. 50971097) 
Shaanxi Provincial Project of Special Foundation of Key Disciplines

Corresponding Authors: Guojun Zhang
Email: zhangguojun@xaut.edu.cn
About author:

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