Continuum approach to high-cycle fatigue modeling

被引:81
作者
Ottosen, Niels Saabye [1 ]
Stenstrom, Robert [1 ]
Ristinmaa, Matti [1 ]
机构
[1] Lund Univ, Div Solid Mech, S-22100 Lund, Sweden
关键词
fatigue modeling; damage; continuum mechanics; out-of-phase loading;
D O I
10.1016/j.ijfatigue.2007.08.009
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
A continuum approach to modeling of high-cycle fatigue is proposed. The approach takes a very simple and appealing form and is based on the concepts of a moving endurance surface in the stress space and an evolving damage variable. If the stress state is inside the endurance surface, no damage development occurs whereas damage may develop if the stress state is outside the surface. The endurance surface may move in the stress space as a function of the stress history. The theory is formulated within a proper continuum mechanics framework and it treats uniaxial and multiaxial stress states in a unified mariner for arbitrary load histories. A unique feature of the theory is that it allows for the concepts of fatigue limits and accumulation of damage during the load history and thereby avoids cycle-counting techniques. Predictions of the theory are compared with experimental data and the agreement turns out to be close. (c) 2007 Elsevier Ltd. All rights reserved.
引用
收藏
页码:996 / 1006
页数:11
相关论文
共 50 条
[21]   A New Multiaxial High-Cycle Fatigue Criterion Based on the Critical Plane for Ductile and Brittle Materials [J].
Wang, Cong ;
Shang, De-Guang ;
Wang, Xiao-Wei .
JOURNAL OF MATERIALS ENGINEERING AND PERFORMANCE, 2015, 24 (02) :816-824
[22]   An Experimental Analysis of the High-Cycle Fatigue Fracture of H13 Hot Forging Tool Steels [J].
Calvo-Garcia, Erik ;
Valverde-Perez, Sara ;
Riveiro, Antonio ;
alvarez, David ;
Roman, Manuel ;
Magdalena, Cesar ;
Badaoui, Aida ;
Moreira, Pedro ;
Comesana, Rafael .
MATERIALS, 2022, 15 (21)
[23]   Growth mechanism of a small surface crack of ultrafine-grained copper in a high-cycle fatigue regime [J].
Goto, M. ;
Han, S. Z. ;
Kim, S. S. ;
Ando, Y. ;
Kawagoishi, N. .
SCRIPTA MATERIALIA, 2009, 60 (08) :729-732
[24]   HIGH-CYCLE FATIGUE MODELLING ON A BENCHMARK DCB MODE I DEBOND USING A COHESIVE ZONE MODEL [J].
Li, Gang .
JOURNAL OF MECHANICS OF MATERIALS AND STRUCTURES, 2024, 19 (05) :763-785
[25]   Lifetime Assessment for Multiaxial High-Cycle Fatigue Using Twin-Shear Unified Yield Criteria [J].
Li, Haoran ;
Wang, Jiadong ;
Wang, Juncheng ;
Hu, Ming ;
Peng, Yan .
METALS, 2021, 11 (08)
[26]   Experimental study on high-cycle flexural fatigue behavior of cement mortar for ballastless track of high-speed railway [J].
Xu, Qingyuan ;
Wang, Xi .
CONSTRUCTION AND BUILDING MATERIALS, 2023, 385
[27]   The Effect of Stress Amplitude on Multi-axial High-cycle Fatigue Failure under Constant Amplitude Loading [J].
Shi Xinhong ;
Zhang Jianyu ;
Bao Rui ;
Fei Binjun .
ADVANCES IN FRACTURE AND DAMAGE MECHANICS VIII, 2010, 417-418 :877-880
[28]   A two-scale thermodynamic entropy model for rapid high-cycle fatigue property evaluation of welded joints [J].
Wei, Wei ;
He, Lei ;
Chen, Minghua ;
Chen, Xueting ;
Liang, Ruiyang ;
Zou, Li ;
Yang, Xinhua .
ENGINEERING FRACTURE MECHANICS, 2023, 292
[29]   Numerical study on high-cycle fatigue crack growth of sinusoidal interface based on cyclic cohesive zone model [J].
Chen, Zhiying ;
Dai, Yanwei ;
Liu, Yinghua .
INTERNATIONAL JOURNAL OF FATIGUE, 2023, 174
[30]   Temperature evolution mechanism of AZ31B magnesium alloy during high-cycle fatigue process [J].
Yan, Z. F. ;
Zhang, H. X. ;
Wang, W. X. ;
He, X. L. ;
Liu, X. Q. ;
Wu, G. H. .
THEORETICAL AND APPLIED FRACTURE MECHANICS, 2014, 70 :30-38