The performance of an hexahedron C* element in finite element analysis

被引:0
|
作者
机构
[1] Majzoobi, G.H.
[2] Sharifi Hamadani, B.
来源
Majzoobi, G.H. (gh_majzoobi@yahoo.co.uk) | 1600年 / Materials and Energy Research Center卷 / 26期
关键词
Condition number of the stiffness matrix - Convergence - Convergence rates - CPU time - Elastic stress analysis - Geometric mapping - Transformation matrices - Translational displacements;
D O I
10.5829/idosi.ije.2013.26.10a.09
中图分类号
学科分类号
摘要
The performance of an 8-noded hexahedron C1* element in elasticity is investigated. Three translational displacements and their derivatives as strain ineach direction are considered as degrees of freedom (DOF) at each node. The geometric mapping is enforced using a C0 element with no derivative as nodal DOF. The stiffness matrix of the element is also computed using a transformation matrix obtained from an equivalent C 0 element. The results obtained from elastic stress analysis of a cantilever show that: (i) the convergence rate of 8-noded C1* element is nearly equal to its equivalent C0 element, while it consumes less CPU time with respect to the C0 element; (ii) the element has successfully passed the patch and distortion tests; (iii) the condition number of the stiffness matrix for C1* element is less than the C0 element; (iv) the directly computation of strains as derivative DOF at the nodes along with excellent convergence makes the C 1* element superior compared with its equivalent C0 element. © 2013 Elsevier B.V.
引用
收藏
相关论文
共 50 条
  • [31] Optimization of diamond anvil cell performance by finite element analysis
    Adams, David M.
    Christy, Andrew G.
    Norman, Andrew J.
    Measurement Science and Technology, 1993, 4 (03): : 422 - 430
  • [32] Performance evaluation of a synchronous reluctance machine by finite element analysis
    Canova, A
    Chiampi, M
    Pastorelli, M
    Repetto, M
    Vagati, A
    NON-LINEAR ELECTROMAGNETIC SYSTEMS - ISEM '99, 2000, : 529 - 532
  • [33] A Finite Element Model and Performance Analysis of a Hybrid Continuum Robot
    Zhuang, Dian
    Wang, Xinrui
    Sun, Cijing
    Kang, Rongjie
    INTELLIGENT ROBOTICS AND APPLICATIONS, ICIRA 2019, PT III, 2019, 11742 : 171 - 182
  • [34] Finite-Element Analysis on Percolation Performance of Foam Zinc
    Li, Yu
    Liu, Jie
    Deng, Yida
    Han, Xiaopeng
    Hu, Wenbin
    Zhong, Cheng
    ACS OMEGA, 2018, 3 (09): : 11018 - 11025
  • [35] Finite Element Analysis and Performance Study of Switched Reluctance Generator
    Zhang, Qianhan
    Guo, Yingjun
    Xu, Qi
    Yu, Xiaoying
    Guo, Yajie
    ADVANCES IN MATERIALS, MACHINERY, ELECTRONICS I, 2017, 1820
  • [36] Biomechanical performance of ATOZ expander: Finite-element analysis
    Ouldyerou, Abdelhak
    Ngan, Peter
    Alsharif, Khaled
    Merdji, Ali
    Mukdadi, Osama M.
    AMERICAN JOURNAL OF ORTHODONTICS AND DENTOFACIAL ORTHOPEDICS, 2025, 167 (03) : 331 - 344
  • [37] Performance Test and Finite Element Analysis of Pneumatic Muscle Actuator
    Huh, Shin
    Bae, Sang-kyu
    Kim, Dong-soo
    Kim, Wan-doo
    Hong, Sung In
    TRANSACTIONS OF THE KOREAN SOCIETY OF MECHANICAL ENGINEERS A, 2006, 30 (06) : 662 - 669
  • [38] Finite element analysis on seismic performance of EWECS composite column
    Fauzan
    Kurniawan, Ruddy
    Al Jauhari, Zev
    6TH INTERNATIONAL CONFERENCE OF EURO ASIA CIVIL ENGINEERING FORUM (EACEF 2017), 2017, 138
  • [39] Finite Element Analysis on Thermal Performance of Thermal Barrier Coatings
    Prasad, Mahadeva L.
    Savita, D. C.
    Eswaramoorthy, M.
    INTERNATIONAL CONFERENCE ON SUSTAINABLE ENGINEERING AND TECHNOLOGY (ICONSET 2018), 2018, 2039
  • [40] Electric Performance Model and Finite Element Analysis of Fuzz Button
    Zhang, Zuozhen
    Zhang, Hengwen
    Wang, Baoyou
    Zhang, Lei
    Zhu, Ming
    Yang, Fan
    Li, Jinteng
    2020 4TH INTERNATIONAL CONFERENCE ON ELECTRICAL, AUTOMATION AND MECHANICAL ENGINEERING, 2020, 1626