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J Chin Soc Corr Pro  2001, Vol. 21 Issue (2): 88-94     DOI:
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FRETTING CORROSIONWEARTRANSFERABILITY OF 316L STAINLESS STEEL
;;Jiuqing Li
北京科技大学腐蚀与防护中心 腐蚀、磨蚀与表面技术开放研究实验室
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Abstract  A sphereplane contact device has been used to stu d y the fretting corrosionwear transferability of 316L stainless steel in saline solution. The evolution of fretting damage rates such as the total weight loss r ate (KTt), mechanical damage rate (Kmt), corrosion rate (K ct) and the damage induced by the synergistic effect between mechanical and chemical actions as a function of fretting cycle has been investigated. In t he same time, the variation of the components of mechanical action, corrosion ac tion and the synergistic effect in the total weight loss rate have also been stu died. The variations of KTt,Kmt,Kct were equal to each other. In spite of the difference between the variation of Kct an d the variations of KTt,Kmt,Kct,the fretting of 31 6L stainless steel was characteristic of three stages. And each of these three s tages was of the different mechanism. In the beginning of fretting the damage oc curred in local areas, and the material suffered ploughing damage because of the hard debris formed by fabrication of passive film. In the second period, seriou s crevice corrosion occurred nearby the fretted region, which has taken a great important role in the fretting process. And in the final period, the damage mech anism could be defined as corrosive flaking process. The results showed there wa s a relationship between the of damage rates and mechanisms. The synergistic eff ect took an important role in fretting, and in stable stage, more than 60 percent of fretting damage was due to the conjoint action of mechanical and chemical effects. The result finds the inter relationship between the transition s of fretting damage rates and the synergistic effect and the variation of damag e mechanisms in different fretting periods.
Key words:  fretting corrosionwear      316L stainless steel      transit ion      synergistic effect      
Received:  14 February 2000     
ZTFLH:  TG113.2  

Cite this article: 

Jiuqing Li. FRETTING CORROSIONWEARTRANSFERABILITY OF 316L STAINLESS STEEL. J Chin Soc Corr Pro, 2001, 21(2): 88-94 .

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https://www.jcscp.org/EN/     OR     https://www.jcscp.org/EN/Y2001/V21/I2/88

[1]WaterhouseRB .FrettingCorrosion[M ].NewYork :PergamonPress,1972
[2 ]WaterhouseRB .FrettingFatigue[M].London :AppliedSciencePublishers ,1981
[3]LiShizhou ,DongXianglin .MaterialErosionandFretting[M].Beijing :EngineeringIndustryPress ,1987(李诗卓 ,董祥林 .材料的冲蚀磨损与微动磨损 [M ].北京 :机械工业出版社 ,1987)
[4 ]LiDongzhi.FrettingandProtection[M ].Xian :ShanxiScienceandTechnologyPress ,1992(李东紫 .微动磨损与防护技术 [M ].西安 :陕西科学技术出版社 ,1992 )
[5 ]HoeppnerDWandChandrasekaranV .Frettinginorthopaedicimplants :areview[J].Wear ,1994,173:189
[6 ]YanJianzhong ,WuYinshun ,ZhangLin ,etal.Theeffectoflocalizedcorrosiononfrettingattackof 316Lstainlesssteelin 0 .9%NaClsolution[J].JournalofChineseSocietyforCorrosionandProtection ,2 0 0 0 ,2 0 (4 ) :2 37- 2 42(闫建中 ,吴荫顺 ,张琳 ,李久青 .316L不锈钢在 0 .9%NaCl溶液微动过程中局部腐蚀作用研究 [J].中国腐蚀与防护学报 ,2 0 0 0 ,2 0 (4 ) :2 37- 2 42
[7]MadsenBrentW .Measurementoferosion -corrosionsynergismwithaslurryweartestapparatus[J].Wear,1988,12 3:12 7
[8]ZhouS ,StackMM ,NewmanRC .Characterizationofsynergisticeffectbetweenerosionandcorrosioninanaqueousenviron mentusingelectrochemicaltechniques[J].Corrosion ,1996 ,5 2 (12 ) :934
[9]ZhengYugui,YaoZhiming ,XiangyunWei,etal.Thesynergisticeffectbetweenerosionandcorrosioninacidicslurrymedium[J].Wear ,1995 ,186 - 187:5 5 5
[10 ]ZhangTC ,JiangXX ,LiSZ ,etal.Aquantitativeestimationofthesynergybetweencorrosionandabrasion[J].CorrosionSci ence ,1994,36 (12 ) :195 3
[11]MatsumuraM ,OkaY ,HiuraH ,etal.Theroleofpassivationfilminpreventingslurryerosion -corrosionofausteniticstainlesssteel[J].ISIJInt.,1991,31(2 ) :16 8
[12 ]HuoShizhong .Electro chemicalProtection[M ].Beijing :ChemicalIndustryPress,1988,19(火时中 .电化学保护 [M ].北京 :化学工业出版社 ,1988,19)
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