Abstract
The effect of microstructure on fretting wear behavior of Inconel 625 alloy was studied after different thermal deformation conditions (strain rate and temperature). The results show that grain size and microhardness have a significant influence on the fretting wear. As thermal deformation temperature increases and strain rate decreases, grain size increases and microhardness decreases. The oxide formed on the surface of Inconel 625 helps to reduce wear, but oxidative wear is the main wear mechanism. In the thermal deformation temperature range of 900–1000 °C and strain rate of 0.1–1 s−1, grain size is less than 4.5 μm, and the hardness is greater than 252.9 HV. Under these conditions, the coefficient of friction is the highest and the wear volume is the lowest. This paper proposes to improve the fretting wear resistance of the workpiece by adjusting the strain rate and temperature during the thermal deformation process.
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References
McCarley J, Alabbad B, and Tin S, Metall Mater Trans A 49 (2018) 1615.
Guo L G, Li D, Yang H, Zhang J, and Zhang W D, Trans Nonferrous Metals Soc China 26 (2016) 1902.
Zhu M H, and Zhou Z R, Tribol Int 44 (2011) 1378.
Rybiak R, Fouvry S, and Bonnet B, Wear 268 (2010) 413.
Zheng J F, Luo J, Mo J L, Peng J F, Jin X S, and Zhu M H, Tribol Int 43 (2010) 906.
Lin Y C, He D G, Chen M S, Chen X M, Zhao C Y, Ma X, and Long Z L, Mater Des 97 (2016) 13.
Zhou Z R, Sauger E, Liu J J, and Vincent L, Wear 212 (1997) 50.
Sauger E, Ponsonnet L, Martin J M, and Vincent L, Tribol Int 33 (2000) 743.
Diomidis N, and Mischler S, Tribol Int 44 (2011) 1452.
Ramesh R, and Gnanamoorthy R, Mater Des 28 (2007) 1447.
Iwabuchi A, Wear 106 (1985) 163.
Lavella M, and Botto D, Wear 271 (2011) 1543.
Mi X, Cai Z B, Xiong X M, Qian H, Tang L C, Xie Y C, Peng J F, and Zhu M H, Tribol Int 100 (2016) 400.
Mi X, Wang W X, Xiong X M, Qian H, Tang L C, Xie Y C, Peng J F, Cai Z B, and Zhu M H, Wear 328–329 (2016) 582.
Pearson S R, Shipway P H, Abere J O, and Hewitt R A A, Wear 303 (2013) 622.
Sikdar K, Shekhar S, and Balani K, Wear 318 (2014) 177.
Wang Y J, Zhao S X, Jia Z, Ji J J, Liu D X, Guo T B, and Ding Y T, Adv Mater Sci Eng 20 (2020) 1.
Li D F, Wu Z G, Guo S L, Peng H J, and Hu J, Rare Metal Mater Eng 41 (2012) 1026.
Jia Z, Gao Z X, Ji J J, Liu D X, Guo T B, and Ding Y T, Materials 12 (2019) 510.
Yu H Y, Cai Z B, Zhou Z R, and Zhu M H, Wear 259 (2005) 910.
Xin L, Wang Z H, Li J, Lu Y H, and Shoji T, Mater Charact 115 (2005) 32.
Detrois M, Antonov S, Tin S, Jablonski P D, and Hawk J A, Mater Charact 157 (2019) 109915.
Ammouri A H, Kridli G, Ayoub G, and Hamade R F, Mater Process Technol 222 (2015) 301.
Wang Q Q, Liu Z Q, Wang B, Song Q H, and Wan Y, Int J Adv Manuf Technol 82(2016) 1725.
Hong J K, Kim I S, Park C Y, and Kim E S, Wear 259 (2005) 349.
Acknowledgements
This work was supported by the National Nature Science Foundation of China (Grant No. 51665032), Science Foundation for Distinguished Young Scholars of Gansu Province (Grant No. 18JR3RA134), and Lanzhou University of Technology Support plan for Excellent Young Scholars (Grant No. CGZH001).
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Jia, Z., Wang, Y., Ji, J. et al. Fretting Wear Properties of Thermally Deformed Inconel 625 Alloy. Trans Indian Inst Met 73, 2829–2839 (2020). https://doi.org/10.1007/s12666-020-02085-6
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DOI: https://doi.org/10.1007/s12666-020-02085-6