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Home > Archive>Volume 52, Issue 6, 2023 >2024-2030. DOI:10.12442/j.issn.1002-185X.E20220041
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Influence of Deposition Temperature on Microstructure and Mechanical Properties of TiAlN Coatings for High Performance Manufacture
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Affiliation:

1.School of Mechanical Engineering and Automation, Northeastern University, Shenyang 110004, China;2.NeuMat (Taian) Surface Technology Limited, Taian 271024, China

Fund Project:

National Natural Science Foundation of China (51775096); Central University Basic Research Fund of China (N2003009); Chinese Academy of Sciences-WEGO Research Development Plan

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    Abstract:

    TiAlN coatings were deposited at various deposition temperatures using vacuum arc ion plating (AIP) for the high performance manufacture. The relationships between deposition temperatures and surface properties were investigated. Results show that surface macroparticles (MPs) decrease in number and size with increasing the deposition temperature because of ion bombardment. When deposition temperature increases, the grain size on the top coating first decreases sharply, and then increases gradually. Furthermore, deposition temperature has little influence on the phase constituents and chemical compositions of the resultant coatings. With raising the deposition temperature, the hardness and adhesion strength first increase rapidly, and then decrease gradually. The deposited TiAlN coating exhibits the highest hardness and the strongest adhesion strength when deposition temperature is set at around 450 °C. The mechanism of the above phenomena is attributed to the variations of microstructure and residual stress between the surface and interface during the deposition process. The resultant coatings have a good thermal stability in air at temperatures up to 900 °C.

    Reference
    [1] Zhang Jun, Lv Huimin, Cui Guanying et al. Thin Solid Films[J], 2011, 519(15): 4818
    [2] Xu X, Chen L, Pei F et al. Surf Coat Technol[J], 2016, 304: 512
    [3] An Q L, Wang C Y, Xu J Y et al. International Journal of Refractory Metals and Hard Materials[J], 2014, 43: 94
    [4] Zywitzki O, Klostermann H, Fietzke F et al. Surf Coat Tech- nol[J], 2006, 200(22?23): 6522
    [5] Devia D M, RestrepoParra R, Arango P J et al. Appl Surf Sci[J], 2011, 257(14): 6181
    [6] Greczynski G, Lu J, Johansson M et al. Vacuum[J], 2012, 86(8): 1036
    [7] Xiao B J, Chen Y, Dai W et al. Surf Coat Technol[J], 2017, 311: 98
    [8] Zhao S S, Du H, Zheng J D et al. Surf Coat Technol[J], 2008, 202(21): 5170
    [9] Heidsieck H. Surf Coat Technol[J], 1999, 112: 324
    [10] Wang L, Zhang S H, Chen Z et al. Appl Surf Sci[J], 2012, 258(8): 3629
    [11] Baranov O O, Fang J, Rider A E et al. IEEE Transactions on Plasma Science[J], 2013, 41(12): 3640
    [12] Huang S H, Hsieh T E, Chen J W. Surf Coat Technol[J], 2009, 204(6?7): 988
    [13] Vereschaka A S, Vereschaka A A, Sladkov D V et al. Journal of Nano Research[J], 2016, 37: 51
    [14] Wustefeld C, Rafaja D, Klemm V et al. Surf Coat Technol[J], 2010, 205(5): 1345
    [15] Wang S H, Lin Z, Qiao H et al. Coatings[J], 2018, 8(2): 8 020 049
    [16] Zhirkov I, Oks E, Rosen J. Journal of Applied Physics[J], 2015, 117(21): 16
    [17] Schramm I C, Joesaar M P J, Jensen J et al. Acta Mater[J], 2016, 119: 218
    [18] Greczynski G, Jensen J, Greene J E et al. Surface Science Spectra[J], 2014, 21(1): 35
    [19] Marco J F, Gancedo J R, Auger M A et al. Surf Interface Anal[J], 2005, 37(12): 1082
    [20] Yao Y R, Li J L, Wang Y X et al. Surf Coat Technol[J], 2015, 280: 154
    [21] Bushroa A R, Rahbari R G, Masjuki H H et al. Vacuum[J], 2012, 86(8): 1107
    [22] Klug H P, Alexander L E. X-ray Diffraction Procedures for Polycrystalline and Amorphous Materials[M]. New York: Wiley, 1954
    [23] Jafari M, Vaezzadeh M, Noroozizadeh S. Metallurgical & Materials Transactions A[J], 2010, 41(13): 3287
    [24] Anayara B, Amir H, Atowar R. Beilstein Journal of Nanotechnology[J], 2012, 3(3): 438
    [25] Anders A. Thin Solid Films[J], 2010, 518(15): 4087
    [26] Wang T G, Zhao S S, Hua WG et al. Mater Sci Eng A[J], 2010, 527(3): 454
    [27] Tung H M, Huang J H, Tsai D G et al. Mater Sci Eng A[J], 2009, 500(1?2): 104
    [28] Wang T G, Jeong D, Liu Y M et al. Surf Coat Technol[J], 2012, 206(10): 2638
    [29] Jiang N, Shen Y G, Zhang H J et al. Mater Sci Eng B[J], 2006, 135(1): 1
    [30] Liu Z J, Shum P W, Shen Y G. Thin Solid Films[J], 2004, 468(1?2): 161
    [31] Sakurada E, Hiwatashi S, Ushioda K. Journal of the Japan Institute of Metals[J], 2016, 80(10): 655
    [32] Tung H M, Huang J H, Tsai D G et al. Mater Sci & Eng A[J], 2009, 500(1): 104
    [33] Warcholinski B, Gilewicz A. Vacuum[J], 2013, 90(1): 145
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[Liu Xinglong, Xu Chengyuan, Chen Bin, Qiao Hong, Lin Zeng. Influence of Deposition Temperature on Microstructure and Mechanical Properties of TiAlN Coatings for High Performance Manufacture[J]. Rare Metal Materials and Engineering,2023,52(6):2024~2030.]
DOI：10.12442/j. issn.1002-185X. E20220041

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History
  • Received:December 05,2022
  • Revised:February 04,2023
  • Adopted:February 14,2023
  • Online: July 03,2023
  • Published: June 30,2023

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