Rubber fatigue evaluation for antivibration products and an S-N curve with a scatter band of 0.8

被引:3
|
作者
Luo, Robert Keqi [1 ]
机构
[1] Trelleborg Ind Antivibrat Solut, Leicester, Leics, England
关键词
Rubber; damage criteria; effective stress; modelling and simulation; antivibration design; PREDICTION; LIFE;
D O I
10.1177/14644207211018238
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Rubber antivibration products are widely used in engineering structures. An accurate evaluation on fatigue performance is a challenging issue during a design procedure. In this article, an effective stress approach was applied to multi-directional snubbing (MDS) mounts, AE2 and AE42 specimens. It was demonstrated that observed fatigue cracks were initiated at a place where the maximum effective stress was located. There were confirmed strong correlations between the effective stress and the number of failed cycles: R-2 = 0.994 for AE2 with eight fatigue cases, R-2 = 0.955 for AE42 with 16 cases and R-2 = 0.917 for both AE2 and AE42 with 24 cases. A valuable S-N curve (covering from 2 x 10(2) to 3 x 10(6) cycles) of rubber (SBR with 67 hardness) was obtained (a scatter-band range of 0.8 with an average standard deviation of 14.3%). The scatter band includes both natural fatigue scattering and criterion accuracy. Less than 10% CPU time, compared with the critical plane search method, would only be required for evaluation on a fatigue case of a two-dimensional solid. These findings have shown that the proposed approach is reliable and can be considered in a suitable fatigue design stage. As the presented criterion was validated in limited contexts, more cases in antivibration design are required to support this approach.
引用
收藏
页码:2382 / 2390
页数:9
相关论文
共 50 条
  • [31] Stepwise S-N curve and fish-eye failure in gigacycle fatigue
    Nishijima, S.
    Kanazawa, K.
    Fatigue and Fracture of Engineering Materials and Structures, 1999, 22 (07): : 601 - 607
  • [32] Verification of Class B S-N curve for fatigue design of steel forgings
    Zhang, Yan-Hui
    Maddox, Stephen J.
    Manteghi, Siakzar
    INTERNATIONAL JOURNAL OF FATIGUE, 2016, 92 : 246 - 261
  • [33] A new intelligent design method for building material fatigue S-N curve
    Wan, Yi
    Wu, Chengwen
    IEEE: 2009 INTERNATIONAL CONFERENCE ON E-LEARNING, E-BUSINESS, ENTERPRISE INFORMATION SYSTEMS AND E-GOVERNMENT, 2009, : 97 - 99
  • [34] Hot spot stress S-N curve for fatigue analysis of plated structures
    Lotsberg, Inge
    Sigurdsson, Gudfinnur
    JOURNAL OF OFFSHORE MECHANICS AND ARCTIC ENGINEERING-TRANSACTIONS OF THE ASME, 2006, 128 (04): : 330 - 336
  • [35] A Refined S-N Curve Model
    Burhan, Ibrahim
    Kim, Ho Sung
    Thomas, Sabu
    2016 INTERNATIONAL CONFERENCE ON SUSTAINABLE ENERGY, ENVIRONMENT AND INFORMATION ENGINEERING (SEEIE 2016), 2016, : 412 - 416
  • [36] Plucker's numbers of a curve in S-n
    Schoute, PH
    PROCEEDINGS OF THE KONINKLIJKE AKADEMIE VAN WETENSCHAPPEN TE AMSTERDAM, 1904, 6 : 501 - 505
  • [37] Rapid evaluation of S-N curve for composite laminates on thermographic approach
    Huang, Jia
    Garnier, Christian
    Pastor, Marie-Laetitia
    Gong, Xiaojing
    12TH INTERNATIONAL FATIGUE CONGRESS (FATIGUE 2018), 2018, 165
  • [39] Combine S-N curve and fracture mechanics for fatigue life analysis of welded structures
    魏国前
    Odsuren Ochbileg
    岳旭东
    党章
    China Welding, 2019, 28 (04) : 39 - 45
  • [40] A new nonlinear fatigue damage model based only on S-N curve parameters
    Aeran, Ashish
    Siriwardane, Sudath C.
    Mikkelsen, Ove
    Langen, Ivar
    INTERNATIONAL JOURNAL OF FATIGUE, 2017, 103 : 327 - 341