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CORROSION FATIGUE BEHAVIOR OF STAINLESS STEEL 3RE60 IN 3.5% SODIUM CHLORIDE SOLUTION

CORROSION FATIGUE BEHAVIOR OF STAINLESS STEEL 3RE60 IN 3.5% SODIUM CHLORIDE SOLUTION
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摘要 The corrosion fatigue behavior of stainless steel 3RE60 in 3.5%NaCl solution was studied at different cyclic stress levels. The results showed that both intergranular corrosion cracking and transgranular corrosion cracking initiated at the bottom of pits. The corrosion fatigue behavior of 3RE60 may be related to complex electrochemical and mechanical coupling effects between the three phases (austenite, ferrite and martensite), where martensite and ferrite were anodic in the corrosion cell and could be prone to crack under certain conditions. The corrosion fatigue behavior of stainless steel 3RE60 in 3.5%NaCl solution wasstudied at different cyclic stress levels. The results showed that both intergranularcorrosion cracking and transgranular corrosion cracking initiated at the bottom ofpits. The corrosion fatigue behavior of 3RE60 may be related to complex electrochem-ical and mechanical coupling effects between the three phases (austenite, ferrite andmartensite), where martensite and ferrite were anodic in the corrosion cell and couldbe prone to crack under certain conditions.
出处 《Acta Metallurgica Sinica(English Letters)》 SCIE EI CAS CSCD 2002年第6期538-544,共7页 金属学报(英文版)
基金 Colleges and Universities Doctoral Station Fund Project (No. 97000812).
关键词 corrosion fatigue stainless steel 3RE60 phase electrochemical DISLOCATION corrosion fatigue stainless steel 3RE60 phase electrochemical dislocation
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  • 1[1]G.P. Xu and P. Albrecht, in Fatigue Strength of Corroded Rolled Beams, Proceedings of the Sessions Related to Structural Materials at Structures Congress '89, Sponsored by ASCE (New York, NY, USA Publ. by ASCE, May 1-5, 1989) p.159.
  • 2[2]Y.S. Wu, J.H. Xie, X.Y. Wang, Z. Fang and B. Cao, Corrosion Science and Protection Technology11(1) (1999) 24 (in Chinese).
  • 3[3]Y. Imashimizu and J. Watanabe, Transactions of the Japan Institute of Metals 24(12) (1983) 791.
  • 4[4]C. Laird and W.H. Kim, in Corrosion Fatigue: Chemistry, Mechanics, and Microstructure, eds. O.F.Devereux, A.J. McEvily and R.W. Staehle (Houston, TX, NACE, 1972) p.88.
  • 5[5]J.H. Payer and R.W. Staehle, in Corrosion Fatigue: Chemistry, Mechanics, and Microstructure, eds.O.F. Devereux, A.J. McEvily and R.W. Staehle (Houston, TX, NACE, 1972) p.211
  • 6[6]H. Masuda and S. Matsuoka, Corrosion Science 30(6) (1990) 631.
  • 7[7]M. Rebiere and T. Magnin, Materials Science & Engineering A: Structural Materials: Properties,Microstructure and Processing A128(1) (1990) 99.

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