Development of generic creep-fatigue life prediction models

被引:38
|
作者
Goswami, T [1 ]
机构
[1] Ohio No Univ, TJ Smull Coll Engn, Dept Engn Mech, Ada, OH 45810 USA
来源
MATERIALS & DESIGN | 2004年 / 25卷 / 04期
关键词
creep-fatigue; life prediction; fatigue life; high temperature materials;
D O I
10.1016/j.matdes.2003.11.001
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
This paper presents a data bank that was compiled from published and unpublished sources. Using these data, low cycle fatigue curves were generated under a range of test conditions showing the effect of test parameters on the Coffin-Manson behavior of steel alloys. Phenomenological methods of creep-fatigue life prediction are Summarized in a table showing number of material parameters required by each method and type of tests needed to generate such parameters. Applicability of viscosity method was assessed with creep-fatigue data on 1Cr-Mo-V, 2.25Cr-Mo and 9Cr-1Mo steels. Generic equations have been developed in this paper to predict the creep-fatigue life of high temperature materials. Several new multivariate equations were developed to predict the creep-fatigue life of following alloy groups; (1) Cr-Mo steels, (2) stainless steels and (3) generic materials involving the materials from the following alloy groups, solder, copper, steels, titanium, tantalum and nickel-based alloys. Statistical analyses were performed in terms of coefficient of correlation (R-2) and normal distribution plots and recommended these methods in the design of components operating Lit high temperatures. (C) 2003 Elsevier Ltd. All rights reserved.
引用
收藏
页码:277 / 288
页数:12
相关论文
共 50 条
  • [31] An efficient fatigue and creep-fatigue life prediction method by using the hysteresis energy density rate concept
    Wang, Qiang
    Xu, Zhongwei
    Wang, Xishu
    FATIGUE & FRACTURE OF ENGINEERING MATERIALS & STRUCTURES, 2020, 43 (07) : 1529 - 1540
  • [32] A generalized hysteresis energy method for fatigue and creep-fatigue life prediction of 316L(N)
    Fan, Ya-Nan
    Shi, Hui-Ji
    Tokuda, Kenji
    MATERIALS SCIENCE AND ENGINEERING A-STRUCTURAL MATERIALS PROPERTIES MICROSTRUCTURE AND PROCESSING, 2015, 625 : 205 - 212
  • [33] Multiaxial creep-fatigue Life Prediction Under Variable Amplitude Loading at High Temperature
    Wang, Xiao-Wei
    Shang, De-Guang
    Guo, Zhen-Kun
    JOURNAL OF MATERIALS ENGINEERING AND PERFORMANCE, 2019, 28 (03) : 1601 - 1611
  • [34] Life Prediction of Two Rotor Steels under Creep-Fatigue Interaction at Elevated Temperature
    Xu, Hong
    Zhang, Wei-wei
    Maile, Karl
    MECHANICAL ENGINEERING, MATERIALS SCIENCE AND CIVIL ENGINEERING II, 2014, 470 : 581 - +
  • [35] A numerical investigation of creep-fatigue life prediction utilizing hysteresis energy as a damage parameter
    Oldham, Joseph
    Abou-Hanna, Jeries
    INTERNATIONAL JOURNAL OF PRESSURE VESSELS AND PIPING, 2011, 88 (04) : 149 - 157
  • [36] Multiaxial creep-fatigue life using cruciform specimen
    Zhang, Shengde
    Harada, Masaya
    Ozaki, Kunimasa
    Sakane, Masao
    INTERNATIONAL JOURNAL OF FATIGUE, 2007, 29 (05) : 852 - 859
  • [37] Application of ultrasonic test on creep-fatigue life evaluation
    Kim, B. J.
    Lim, B. S.
    Song, S. J.
    Kim, Young H.
    ADVANCED NONDESTRUCTIVE EVALUATION I, PTS 1 AND 2, PROCEEDINGS, 2006, 321-323 : 476 - 479
  • [38] Experimental study and life prediction for aero-engine turbine blade considering creep-fatigue interaction effect
    Sun, Debin
    Wan, Zhenhua
    ENGINEERING FRACTURE MECHANICS, 2024, 310
  • [39] Physics-informed neural network for creep-fatigue life prediction of Inconel 617 and interpretation of influencing factors
    Zhang, Shanglin
    Wang, Lanyi
    Zhu, Shun-Peng
    Deng, Xi
    Fu, Sicheng
    Luo, Changqi
    Dong, Yuanyuan
    Yan, Dapeng
    MATERIALS & DESIGN, 2024, 245
  • [40] Improved Methods of Creep-Fatigue Life Assessment of Components
    Scholz, A.
    Berger, C.
    ADVANCES IN MATERIALS TECHNOLOGY FOR FOSSIL POWER PLANTS, 2008, : 748 - 761