Fracture mechanics analyses of fretting fatigue cracks considering propagation directions

被引:0
作者
Hattori, T [1 ]
Watanabe, T [1 ]
机构
[1] Hitachi Ltd, Mech Engn Res Lab, Tsuchiura, Ibaraki 300, Japan
来源
ADVANCES IN MECHANICAL BEHAVIOUR, PLASTICITY AND DAMAGE, VOLS 1 AND 2, PROCEEDINGS | 2000年
关键词
fretting fatigue; fracture mechanics; contact edge; crack propagation direction; stress intensity factor range; fretting fatigue limit;
D O I
暂无
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
In previous papers we presented estimation methods of fretting fatigue limits using fracture mechanics. Characteristics of fretting fatigue cracks were analyzed using stress intensity factors at the tip of cracks growing from the contact edges. Fretting fatigue limits were estimated by comparing the operating stress intensity factor ranges with the threshold stress intensity factor range of the material. In these previous analyses the directions of fretting cracks are restricted normal to the contact surface. But in the actual fretting fatigue cracks propagate inclined directions. This inclination will relate to the distribution of stress ranges. So in this paper the distributions of stress ranges are analyzed, and then the loci which pass maximum stress range points are plotted. These maximum stress range loci coincided well with the experimental results of fretting crack pass geometry. Finally the stress intensity factor range of these inclined cracks are analyzed and found that the stress intensity factor range of these inclined cracks are about 20% higher than that of normal cracks especially in small crack region less than 0.5mm. From these results we can confirm that the fretting fatigue strength can be estimated accurately by considering the inclination of the cracks.
引用
收藏
页码:1015 / 1020
页数:6
相关论文
共 50 条
  • [31] Mechanics of two-stage crack growth in fretting fatigue
    Yang, B.
    Mall, S.
    ENGINEERING FRACTURE MECHANICS, 2008, 75 (06) : 1507 - 1515
  • [32] A fracture mechanics life prediction methodology applied to dovetail fretting
    Golden, P. J.
    Calcaterra, J. R.
    TRIBOLOGY INTERNATIONAL, 2006, 39 (10) : 1172 - 1180
  • [33] Fretting fatigue strength of 12% Cr steel under high local contact pressure and its fracture mechanics analysis
    Asai, Kunio
    FATIGUE 2010, 2010, 2 (01): : 475 - 484
  • [34] ASSESSING THE DEVELOPMENT OF FATIGUE CRACKS: FROM GRIFFITH FUNDAMENTALS TO THE LATEST APPLICATIONS IN FRACTURE MECHANICS
    Angelova, Donka
    SECURITY AND RELIABILITY OF DAMAGED STRUCTURES AND DEFECTIVE MATERIALS, 2009, : 281 - 299
  • [35] Initial orientation of the fretting fatigue cracks in shrink-fit connection specimens
    Santus, Ciro
    FRATTURA ED INTEGRITA STRUTTURALE, 2019, 13 (48): : 442 - 450
  • [36] Prediction of crack propagation direction in fretting fatigue
    Maslan, M. H.
    Ifayefunmi, O.
    Wahap, M. A. A.
    PROCEEDINGS OF MECHANICAL ENGINEERING RESEARCH DAY 2019 (MERD'19), 2019, : 316 - 317
  • [37] Fretting fatigue strength and life estimation in ultra high cycle region considering the fretting wear process
    Hattori, T
    Yamashita, M
    Nishimura, N
    JSME INTERNATIONAL JOURNAL SERIES A-SOLID MECHANICS AND MATERIAL ENGINEERING, 2005, 48 (04) : 246 - 250
  • [38] Fretting fatigue life prediction of 316L stainless steel based on elastic-plastic fracture mechanics approach
    Noraphaiphipaksa, N.
    Manonukul, A.
    Kanchanomai, C.
    Mutoh, Y.
    TRIBOLOGY INTERNATIONAL, 2014, 78 : 84 - 93
  • [39] Simple estimation method of fretting fatigue limit considering wear process
    Hattori, Toshio
    Yamashita, Kouki
    Yamashita, Yuusuke
    TRIBOLOGY INTERNATIONAL, 2017, 108 : 69 - 74
  • [40] Influencing factors of steel wire fatigue crack propagation based on fracture mechanics
    Tan, Dongmei
    Tao, Yu
    Ji, Baifeng
    Li, Wenjie
    Liu, Yubin
    JOURNAL OF CONSTRUCTIONAL STEEL RESEARCH, 2025, 229