Radiation heat transfer model for complex superalloy turbine blade in directional solidification process based on finite element method

被引:4
|
作者
Liao, Dun-ming [1 ]
Cao, Liu [1 ]
Chen, Tao [1 ]
Sun, Fei [1 ]
Jia, Yong-zhen [1 ]
Teng, Zi-hao [1 ]
Tang, Yu-long [1 ]
机构
[1] Huazhong Univ Sci & Technol, State Key Lab Mat Proc & Die & Mould Technol, Wuhan 430074, Peoples R China
关键词
directional solidification; radiation heat transfer; finite element method; numerical simulation; local matrix; superalloy turbine blade; NI-BASED SUPERALLOY; NUMERICAL-SIMULATION; EVOLUTION; GROWTH; GRAIN;
D O I
10.1007/s41230-016-5117-8
中图分类号
TF [冶金工业];
学科分类号
0806 ;
摘要
For the sake of a more accurate shell boundary and calculation of radiation heat transfer in the Directional Solidification (DS) process, a radiation heat transfer model based on the Finite Element Method (FEM) is developed in this study. Key technologies, such as distinguishing boundaries automatically, local matrix and lumped heat capacity matrix, are also stated. In order to analyze the effect of withdrawing rate on DS process, the solidification processes of a complex superalloy turbine blade in the High Rate Solidification (HRS) process with different withdrawing rates are simulated; and by comparing the simulation results, it is found that the most suitable withdrawing rate is determined to be 5.0 mm center dot min(-1). Finally, the accuracy and reliability of the radiation heat transfer model are verified, because of the accordance of simulation results with practical process.
引用
收藏
页码:123 / 132
页数:10
相关论文
共 50 条
  • [31] WIND TURBINE BLADE FLUTTER SUPPRESSION METHOD BASED ON MOMENT TRANSFER MODEL
    Chen P.
    Liu H.
    Chai L.
    Zhou N.
    Taiyangneng Xuebao/Acta Energiae Solaris Sinica, 2024, 45 (04): : 159 - 165
  • [32] Heat transfer analysis of rapid ice prototyping process by finite element method
    Feng, Chao
    Yan, Shuangjing
    Zhang, Renji
    Yan, Yongnian
    MATERIALS & DESIGN, 2007, 28 (03) : 921 - 927
  • [33] Simulation study on coupled heat and moisture transfer in grain drying process based on discrete element and finite element method
    Li, Xin
    Yang, Kaimin
    Wang, Yuancheng
    DU, Xinming
    DRYING TECHNOLOGY, 2023, 41 (12) : 2027 - 2041
  • [34] ROBUST MODEL FOR PREDICTING THE AVERAGE FILM COOLING HEAT TRANSFER COEFFICIENT OVER A TURBINE BLADE BASED ON THE FINITE VOLUME STUDY
    Payandehdoost, M.
    Amanifard, N.
    Naghashnejad, M.
    Deylami, H. M.
    HEAT TRANSFER RESEARCH, 2014, 45 (07) : 643 - 657
  • [35] Heat transfer methodology of microreactor based on Bandelet finite element method
    Zhao, Bin
    Ren, Yi
    Gao, Diankui
    Xu, Lizhi
    Zhang, Yuanyuan
    INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2019, 132 : 715 - 722
  • [36] Multi-scale coupling simulation in directional solidification of superalloy based on cellular automaton-finite difference method
    Zhao Guo
    Jian-xin Zhou
    Ya-jun Yin
    Dong-qiao Zhang
    Xiao-yuan Ji
    Xu Shen
    China Foundry, 2017, (05) : 398 - 404
  • [37] Multi-scale coupling simulation in directional solidification of superalloy based on cellular automaton-finite difference method
    Zhao Guo
    Jian-xin Zhou
    Ya-jun Yin
    Dong-qiao Zhang
    Xiao-yuan Ji
    Xu Shen
    ChinaFoundry, 2017, 14 (05) : 398 - 404
  • [38] Multi-scale coupling simulation in directional solidification of superalloy based on cellular automaton-finite difference method
    Zhao Guo
    Jian-xin Zhou
    Ya-jun Yin
    Dong-qiao Zhang
    Xiao-yuan Ji
    Xu Shen
    China Foundry, 2017, 14 : 398 - 404
  • [39] Multi-scale coupling simulation in directional solidification of superalloy based on cellular automaton-finite difference method
    Guo, Zhao
    Zhou, Jian-xin
    Yin, Ya-jun
    Zhang, Dong-qiao
    Ji, Xiao-yuan
    Shen, Xu
    CHINA FOUNDRY, 2017, 14 (05) : 398 - 404
  • [40] Analysis of flow, heat transfer, solidification, and inclusion removal in continuous slab caster by finite element method
    Moon, CH
    Hwang, SM
    IRONMAKING & STEELMAKING, 2003, 30 (01) : 48 - 56