Effect of submicron Sn on wear resistance and scale resistance of Ni-P-Sn composite coating

被引:1
作者
Chen, Hao [1 ]
Xu, Xiao Jing [1 ]
Jiang, Ze [1 ]
Mao, Qiang [1 ]
Zhang, Tian Ci [1 ]
Liu, Qing Jun [1 ]
Zhang, Xu [1 ]
Zhou, Kai Xiang [1 ]
机构
[1] Jiangsu Univ, Engn Inst Adv Mfg & Modern Equipment Technol, Zhenjiang 212013, Jiangsu, Peoples R China
关键词
Ni-P-Sn composite coating; Sn content; friction and wear; scale resistance; CORROSION-RESISTANCE; ELECTRODEPOSITION; DEPOSITION;
D O I
10.1088/2053-1591/ab3be5
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
In this experiment, the microstructure and mechanical properties of Ni-P-Sn composite coatings with different Sn contents were observed by scanning electron microscope, optical contact angle measuring instrument, Vickers hardness tester and other experimental equipment. The effects of different Sn contents on wear resistance and scale resistance of Ni-P-Sn composite coatings were studied. The friction and wear properties of composite coatings with different Sn contents are tested and analyzed on friction and wear instruments, and the influence of Sn content on the scale resistance of composite coatings is analyzed through surface free energy and scale adhesion experiments. The results show that by measuring the hardness values of Ni-P-submicron Sn(2 g l(-1)) coating, Ni-P coating and Q235, it is found that the hardness value of Ni-P-Sn composite coating is the highest, 434.9 HV. At the same time, it is concluded that adding Sn to Ni-P composite coating is helpful to reduce the friction coefficient of the coating. The friction coefficient of Ni-P-Sn composite coating (6 g l(-1)) is 16.04% lower than that of the coating without Sn. When Sn content is 6 g l(-1), the wear resistance is the best. When Sn content is 2 g l(-1), the contact angle is 120.2 degrees at the maximum. The minimum surface free energy is 15 MJ m(-2). The dirt weight gain is the minimum value of 85 g m(-2). At this time, the anti-fouling performance is the best.
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页数:10
相关论文
共 19 条
[1]  
Dimitrov K N, 2018, J PHYS C SERIES, V1037
[2]   Modelling of surfactants and chemistry for electroless Ni-P plating [J].
Farzaneh, Amir ;
Ehteshamzadeh, Maryam ;
Cobley, Andrew J. .
SURFACE ENGINEERING, 2018, 34 (06) :454-461
[3]   Electrodeposition of high corrosion resistant Ni-Sn-P alloy coatings from an ionic liquid based on choline chloride [J].
Fashu, S. ;
Mudzingwa, L. ;
Khan, R. ;
Tozvireva, M. .
TRANSACTIONS OF THE INSTITUTE OF METAL FINISHING, 2018, 96 (01) :20-26
[4]   On the cohesion of fluids and their adhesion to solids: Young's equation at the atomic scale [J].
Fernandez-Toledano, J. -C. ;
Blake, T. D. ;
Lambert, P. ;
De Coninck, J. .
ADVANCES IN COLLOID AND INTERFACE SCIENCE, 2017, 245 :102-107
[5]   ATTRACTIVE FORCES AT INTERFACES [J].
FOWKES, FM .
INDUSTRIAL AND ENGINEERING CHEMISTRY, 1964, 56 (12) :40-&
[6]   Zincating Effect on Corrosion Resistance of Electroless Ni-P Coating on Aluminum Alloy 6061 [J].
Gonzalez Gutierrez, A. G. ;
Pech-Canul, M. A. ;
Sebastian, P. J. .
FUEL CELLS, 2017, 17 (06) :770-777
[7]   Reliability evaluation on a submicron Ni(P) thin film for lead-free soldering [J].
Ho, C. E. ;
Fan, C. W. ;
Wu, W. H. ;
Kuo, T. T. .
THIN SOLID FILMS, 2013, 529 :364-368
[8]   Deposition Process and Properties of Electroless Ni-P-Al2O3 Composite Coatings on Magnesium Alloy [J].
Hu, Rong ;
Su, Yongyao ;
Liu, Yurong ;
Liu, Hongdong ;
Chen, Yingmin ;
Cao, Changsheng ;
Ni, Haitao .
NANOSCALE RESEARCH LETTERS, 2018, 13
[9]   Preparation of the Multi-Walled Carbon Nanotubes/Nickel Composite Coating with Superior Wear and Corrosion Resistance [J].
Li, Xuewu ;
Gu, Yang ;
Shi, Tian ;
Peng, Dai ;
Tang, Mingkai ;
Zhang, Qiaoxin ;
Huang, Xingjiu .
JOURNAL OF MATERIALS ENGINEERING AND PERFORMANCE, 2015, 24 (12) :4656-4663
[10]   Characterization of microstructure and properties of electroless duplex Ni-W-P/Ni-P nano-ZrO2 composite coating [J].
Luo, Hong ;
Leitch, Michael ;
Zeng, Hongbo ;
Luo, Jing-Li .
MATERIALS TODAY PHYSICS, 2018, 4 :36-42