Combination of finite element and reliability methods in nonlinear fracture mechanics

被引:32
作者
Pendola, M [1 ]
Mohamed, A
Lemaire, M
Hornet, P
机构
[1] Mech & Technol Dept, EDF, DRD, F-77818 Moret Sur Loing, France
[2] UBP, LARAMA, IFMA, F-63175 Aubiere, France
关键词
structural reliability; direct coupling method; quadratic response surface method; pipe; finite element analysis; nonlinear fracture mechanics;
D O I
10.1016/S0951-8320(00)00043-0
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
This paper presents a probabilistic methodology for nonlinear fracture analysis in order to get decisive help for the reparation and functioning optimization of general cracked structures. It involves nonlinear finite element analysis. Two methods are studied for the coupling of finite element with reliability software: the direct method and the quadratic response surface method. To ensure the response surface efficiency, we introduce new quality measures in the convergence scheme. An example of a cracked pipe is presented to illustrate the proposed methodology. The results show that the methodology is able to give accurate probabilistic characterization of the J-integral in elastic-plastic fracture mechanics without obvious time consumption. By introducing an "analysis re-using" technique, we show how the response surface method becomes cost attractive in case of incremental finite element analysis. (C) 2000 Elsevier Science Ltd. All rights reserved.
引用
收藏
页码:15 / 27
页数:13
相关论文
共 50 条
[41]   Nonlinear finite element reliability analysis of Concrete-Faced Rockfill (CFR) dams under static effects [J].
Kartal, Murat Emre ;
Bayraktar, Alemdar ;
Basaga, Hasan Basri .
APPLIED MATHEMATICAL MODELLING, 2012, 36 (11) :5229-5248
[42]   Benchmarks for finite element analysis of creep continuum damage mechanics [J].
Becker, AA ;
Hyde, TH ;
Sun, W ;
Andersson, P .
COMPUTATIONAL MATERIALS SCIENCE, 2002, 25 (1-2) :34-41
[43]   Finite element analysis for mechanics of guiding catheters in transfemoral intervention [J].
Wang, Wei ;
Wan, Zhenping ;
Wu, Boxi ;
Lu, Longsheng ;
Tang, Yong .
JOURNAL OF CARDIAC SURGERY, 2019, 34 (08) :690-699
[44]   Structural finite element analysis to explain cell mechanics variability [J].
Barreto, Sara ;
Perrault, Cecile M. ;
Lacroix, Damien .
JOURNAL OF THE MECHANICAL BEHAVIOR OF BIOMEDICAL MATERIALS, 2014, 38 :219-231
[45]   Assessment of finite element models for prediction of osteoporotic fracture [J].
Lee, Yeokyeong ;
Ogihara, Naomichi ;
Lee, Taeyong .
JOURNAL OF THE MECHANICAL BEHAVIOR OF BIOMEDICAL MATERIALS, 2019, 97 :312-320
[46]   Mechanism of scaphoid waist fracture: finite element analysis [J].
Santoshi, John Ashutosh ;
Behera, Prateek ;
Dwivedi, Ravi Kumar ;
Srivastav, Ayush .
JOURNAL OF HAND SURGERY-EUROPEAN VOLUME, 2023, 48 (05) :426-434
[47]   Fracture testing and finite element modeling of pure titanium [J].
Paulino, GH ;
Carpenter, RD ;
Liang, WW ;
Munir, ZA ;
Gibeling, JC .
ENGINEERING FRACTURE MECHANICS, 2001, 68 (12) :1417-1432
[48]   Finite Element Analysis for the Treatment of Proximal Femoral Fracture [J].
Hsu, Ching-Chi ;
Lin, Jinn ;
Amaritsakul, Yongyut ;
Antonius, Takalamesar ;
Chao, Ching-Kong .
CMC-COMPUTERS MATERIALS & CONTINUA, 2009, 11 (01) :1-13
[49]   Finite element analysis on the stress and fracture in the second metatarsal [J].
Wang, B ;
Lu, G .
FRACTURE OF MATERIALS: MOVING FORWARDS, 2006, 312 :275-280
[50]   Finite element analysis of fracture process of weld specimen [J].
Yang, SY ;
Goo, BC .
ADVANCES IN FRACTURE AND STRENGTH, PTS 1- 4, 2005, 297-300 :710-715