Low Cycle Fatigue Crack Propagation in Stainless Steel Under Combined Torsion and Tension

Acta Metall Sin

2005, Vol. 41

Issue (1): 73- DOI:

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Low Cycle Fatigue Crack Propagation in Stainless Steel Under Combined Torsion and Tension

YU Huichen; SUN Yanguo;XIE Shishu; K. TANAKA

Beijing Institute of Aeronautical Materials; Beijing 100095

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YU Huichen; SUN Yanguo; XIE Shishu; K. TANAKA. Low Cycle Fatigue Crack Propagation in Stainless Steel Under Combined Torsion and Tension. Acta Metall Sin, 2005, 41(1): 73-.

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Abstract Low cycle fatigue crack propagation tests were conducted on a circumferentially pre--cracked round bar of a stainless steel under various combinations of cyclic torsion and tension. The crack propagation rate was expressed as a power function of $J$ integral range for both single and mixed mode. For the same $J$--integral range, the mode I propagation rate is the highest and the mode III one is the lowest. The fatigue fracture surface is macroscopically flat under the conditions of excessive plasticity. Striations were observed on the fatigue fracture surface under mixed mode loading, and their spacing value is equal to the crack propagation rate value, the same as in mode I case.

Key words: low cycle fatigue crack propagation J integral

Received: 13 January 2004

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TG113.25

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	YU Huichen
	SUN Yanguo
	XIE Shishu
	K. TANAKA

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https://www.ams.org.cn/EN/ OR https://www.ams.org.cn/EN/Y2005/V41/I1/73

[1] Yu H C, Tanaka K, Akiniwa Y. Fatigue Fract Eng MaterStruct, 1998; 21: 1067
[2] Yu H C, Xie S S, Tanaka K, Akiniwa Y. J Mater Eng,2002; (Suppl.): 317(于慧臣,谢世殊,田中启介,秋庭义明.材料工程,2002;(增刊):317)
[3] Yu H C, Xie S S, Sun Y G, Tanaka K, Akiniwa Y. J Aeronaut Mater, 2004; 24(5): 53(于慧臣,谢世殊,孙燕国,田中启介,秋庭义明.航空材料学报,2004;24(5):53)
[4] Ritchie R O, McClintock F A, Tschegg E K, Hayeb-Hashemi H. ASTMSTP 853, 1985: 203
[5] Tschegg E K, Stanzl S E. ASTMSTP 924, 1988: 214
[6] McClintock, Ritchie R O. In: Mura T ed, Mechanics of Fatigue, AMD-47, New York: American Society of Mechanical Engineers, 1981: 1
[7] Tanaka K, Akiniwa Y, Nakamura H. Fatigue Fract EngMater Struct, 1996; 19: 571
[8] Itoh Y Z, Murakami T, Kasiwaya H. Eng Fract Mech,1988; 31: 967
[9] Yu H C, Xie S S, Zhang Y J, He F W, Tanaka K. J Aero-naut Mater, 2003; 23(Suppl.): 139(于慧臣,谢世殊,张岩基,贺风伟,田中启介.航空材料学报,2003;23(增刊):139)
[10] Yu H C, Xie S S, He F W, Zhang Y J. J Aerospace Power, 2004; 19(6): 197(于慧臣,谢世殊,贺风伟,张岩基.航空动力学报,2004;19(6):197)

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