Automatic DR Structural Analysis of Snap-Through and Snap-Back Using Optimized Load Increments

被引:34
|
作者
Rezaiee-Pajand, M. [1 ]
Alamatian, J. [2 ]
机构
[1] Ferdowsi Univ Mashhad, Dept Civil Engn, Mashhad, Iran
[2] Islamic Azad Univ, Mashhad Branch, Dept Civil Engn, Mashhad, Iran
关键词
DYNAMIC RELAXATION METHOD; LARGE DEFLECTION; CIRCULAR PLATES; POSTBUCKLING ANALYSIS; NONLINEAR STRUCTURES; SECTOR PLATES; DXDR METHOD;
D O I
10.1061/(ASCE)0733-9445(2011)137:1(109)
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
In this paper, new schemes are presented for the dynamic relaxation (DR) method so that the snap-through and the snap-back regions can be traced automatically. These procedures are based on the minimization of the residual force (MRF) and minimization of the residual energy (MRE), and they are capable of updating the load factor in each DR iteration. The suggested techniques are perfectly automatic. Therefore, they do not require any additional parameters such as arc length, incremental displacement, etc. For numerical verification, some frame and truss structures, all possessing geometrical nonlinear behaviors, are analyzed. Tracing the statical path shows that both the MRF and MRE methods can be used successfully in structures with snap-through and snap-back regions. The numerical results indicate that the MRE scheme traces the statical path with a greater number of increments than the MRF. While the jumping probability of the MRE is less than that of the MRF, the analysis time may increase in the MRE. Also, a comparison between the proposed DR methods and arc-length approach shows that the MRF and MRE procedures can present the limit points with higher accuracy.
引用
收藏
页码:109 / 116
页数:8
相关论文
共 50 条
  • [1] SNAP-THROUGH AND SNAP-BACK RESPONSE IN CONCRETE STRUCTURES AND THE DANGERS OF UNDER-INTEGRATION.
    Crisfield, M.A.
    International Journal for Numerical Methods in Engineering, 1986, 22 (03) : 751 - 767
  • [2] CLONING AND STRUCTURAL-ANALYSIS OF THE SNAP-BACK DNA OF PHARBITIS-NIL
    HIRANO, H
    KOMEDA, Y
    IINO, T
    PLANT MOLECULAR BIOLOGY, 1989, 12 (02) : 235 - 244
  • [3] SNAP-THROUGH BUCKLING OF A SIMPLE FRAME WITH A TANGENTIAL LOAD
    AVRAAM, TP
    PANTIS, MA
    KOUNADIS, AN
    ACTA MECHANICA, 1980, 36 (1-2) : 119 - 127
  • [4] DYNAMIC SNAP-THROUGH OF AN ELASTIC SHELL SUBJECTED TO A PULSED LOAD
    SRUBSHCHIK, LS
    PMM JOURNAL OF APPLIED MATHEMATICS AND MECHANICS, 1988, 52 (01): : 75 - 85
  • [5] Snap-through analysis of multistable laminate using the variational asymptotic method
    Kumar, A. Phanendra
    Khajamoinuddin, Shaikbepari Mohmmed
    Burela, Ramesh Gupta
    Mahesh, Vinyas
    Harursampath, Dineshkumar
    MECHANICS BASED DESIGN OF STRUCTURES AND MACHINES, 2023, 51 (11) : 6097 - 6122
  • [6] Isogeometric Analysis of the Nonlinear Deformation of Planar Flexible Beams with Snap-back
    Zheng Huang
    Zeng He
    Wen Jiang
    Hou Qiao
    Hui Wang
    Acta Mechanica Solida Sinica, 2016, 29 (04) : 379 - 390
  • [7] ELASTIC SNAP-THROUGH ANALYSIS OF CURVED PLATES USING DISCRETE ELEMENTS
    YANG, TY
    AIAA JOURNAL, 1972, 10 (04) : 371 - &
  • [8] Hysteresis analysis and feedback stabilization of snap-through buckling
    Padthe, Ashwani K.
    Chaturvedi, Nalin A.
    Bernstein, Dennis S.
    Waas, Anthony M.
    2007 AMERICAN CONTROL CONFERENCE, VOLS 1-13, 2007, : 5579 - 5584
  • [9] Snap-through Bifurcation Analysis of Compliant Bistable Structures
    Zhao, Jian
    Cheng, Kai
    Gao, Renjing
    Huang, Yu
    Liu, Pengbo
    Jixie Gongcheng Xuebao/Journal of Mechanical Engineering, 2019, 55 (05): : 74 - 81
  • [10] NUMERICAL-ANALYSIS OF CATASTROPHIC SOFTENING BEHAVIOR (SNAP-BACK INSTABILITY)
    CARPINTERI, A
    COLOMBO, G
    COMPUTERS & STRUCTURES, 1989, 31 (04) : 607 - 636