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Acta Metall Sin  1988, Vol. 24 Issue (3): 193-199    DOI:
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EFFECT OF ENVIRONMENTS ON FATIGUE BEHAVIOUR OF A DUAL-PHASE STEEL
AI Suhua;WANG Zhongguang Institute of Metal Research; Academia Sinica; Shenyang
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AI Suhua;WANG Zhongguang Institute of Metal Research; Academia Sinica; Shenyang. EFFECT OF ENVIRONMENTS ON FATIGUE BEHAVIOUR OF A DUAL-PHASE STEEL. Acta Metall Sin, 1988, 24(3): 193-199.

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Abstract  Corrosion fatigue behaviour of an as-rolled dual-phase steel has beeninvestigated in tap water or 3.5%NaCl agueous solution under full immersion andintermittent wetting. It was found that in comparison with the data in air, expo-sure to either tap water or salt water results in a substantial reduction in fatiguelife and intermittent wetting later shows the most harmful effects. However, underthe same aggressive condition, the corrosion environments become more and moreharmful while the stress level decreases. A combined observation of fracture surfacewith the flat free surface in SEM shows that corrosion fatigue cracks initiateoften at corrosion pits resulted from the anodic dissolution. In addition, the inter-action between hydrogen and crack tip is considered another important factorwhich controls the crack initiation and propagation in corrosion fatigue. The mar-tensite exhibits a higher resistance to corrosion fatigue than the ferrite matrix.
Key words:  corrosion fatigue      crack iniciation      propagation of crack      corrosion pits      intermittent wetting     
Received:  18 March 1988     
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1 Tanaka T, Nishida M, Hashiguchi K, Kato T. In: Kot R A, Morris J W eds. Structure and Properties of Dual-Phase Steels, New York: TMS-AIME, 1979: 221
2 Gerbase J, Embury J D, Hobbs R M. In: Kot R A, Morris J W eds. Structure and Properties of Dual-Phase Steels, New York: TMS-AIME, 1979: 118
3 Speish G R, Miller R L. In: Kot R A, Bramfitt B L eds. Fundamentals of Dual-Phase Steels, New York: TMS-AIME, 1981: 279
4 Davies R G. Metall Trans, 1979: 10A: 1549
5 沈显璞.碳素双相钢强度规律及微观断裂行为的研究,哈尔滨工业大学博士论文,1984
6 Ai Suhua (艾素华), Wang Zhongguang (王中光). In: Yum Yung-Ha ed. Proc 2nd Conf of Asian-Pacific Congress on Strength Evaluation, APCS-86, July 3--5, 1986, Seaul, Korea: Seaul National University, 1986: 567
7 Fontana M G, Greene N D, 左景伊译.腐蚀工程,北京:化学工业出版社,1982:12
8 Zang Qishan (臧启山), Liu Lu (刘路), Ke Wei (柯伟). In: Inspection Repair and Mairitenance for Offshore and Marine Industries, Jan 27--29 1986, Singapore, Institute For International Research, Co-sponsored by NACE, Houston, 1986: 115--125
9 Duguette D J. In: Meshii M ed. Fatigue and Microstructure, Metal Park, Ohio: ASM, 1978: 335
10 Marcus H L. Fatigue and Microstructure, Metal Park, Ohio: ASM, 1978: 365
11 Turnbull A. In: Rarkins R N ed. Reviews on Coatings and Corrosion, Vol. 5, №1--4, London: Freund Publishing House, 1982: 58
12 Tan B, Farrington G C, Laird C. Fatigue Fract Eng Mater Struct, 1985; 8: 259
13 Wang Zhongguang (王中光), Ai Suhua (艾素华). Scr Metall, 1986; 20: 1733
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