Hot deformation behavior and processing map of low-alloy offshore steel

被引:0
|
作者
Shi-ping Xi
Xin-liang Gao
Wei Liu
Yan-lu Lu
Gui-qin Fu
Hui-cheng Tao
Yong-chang Zang
机构
[1] Yanshan University,National Engineering Research Center for Equipment and Technology of Cold Strip Rolling, College of Mechanical Engineering
[2] Northeastern University,College of Metallurgy
关键词
Offshore steel; Dynamic recrystallization; Microstructure; Hot deformation; Processing map;
D O I
暂无
中图分类号
学科分类号
摘要
The hot deformation behavior of a low-alloy offshore steel was systematically investigated within the temperature range of 850–1150 °C and strain rate range of 0.01–10 s–1, via hot compression testing. The hot working equation, grain size model and recrystallization kinetic models of the steel were developed by fitting the experimental data. The results show that the decrease in Zener–Hollomon Z-parameter value (the increase in deformation temperature and the decrease in strain rate) is beneficial for the occurrence of dynamic recrystallization, and the grain size can be refined by increasing the Z-parameter value within the deformation range of dynamic recrystallization. However, when the Z-parameter value is higher than 3.43 × 1016, dynamic recrystallization will be difficult to occur within the range of experimental deformation conditions. Additionally, processing maps at different strains were constructed. According to the processing map and microstructural analysis, the optimal hot working conditions of the studied steel are within the temperature range of 1000–1100 °C and strain rate range of 0.1–1 s−1, and a complete recrystallization microstructure with fine homogeneous grains could be obtained.
引用
收藏
页码:474 / 483
页数:9
相关论文
共 50 条
  • [41] Hot deformation behavior and the processing map of Zr–1.0Be alloy in single α phase
    Zhihao Feng
    Xiaojun Jiang
    Yunkai Zhou
    Chaoqun Xia
    Xinyu Zhang
    Mingzhen Ma
    Riping Liu
    ProgressinNaturalScience:MaterialsInternational, 2015, 25 (05) : 496 - 502
  • [42] Hot Deformation Behavior and Processing Map of As-Cast TC21 Alloy
    Feng Fei
    Zeng Weidong
    Zhu Yanchun
    Zhao Yongqing
    Zhou Yigang
    RARE METAL MATERIALS AND ENGINEERING, 2012, 41 (02) : 251 - 255
  • [43] Hot deformation behavior of Zr-1Nb alloy: Characterization by processing map
    Sarkar, A.
    Chakravartty, J. K.
    JOURNAL OF NUCLEAR MATERIALS, 2013, 440 (1-3) : 136 - 142
  • [44] Hot deformation behavior and the processing map of Zr-1.0Be alloy in single α phase
    Feng, Zhihao
    Jiang, Xiaojun
    Zhou, Yunkai
    Xia, Chaoqun
    Zhang, Xinyu
    Ma, Mingzhen
    Liu, Riping
    PROGRESS IN NATURAL SCIENCE-MATERIALS INTERNATIONAL, 2015, 25 (05) : 496 - 502
  • [45] Hot Deformation Behavior and Processing Map of Cu-Cr-Nb-Zr Alloy
    S. Chenna Krishna
    Pravin Muneshwar
    Bhanu Pant
    Rajesh Korla
    Journal of Materials Engineering and Performance, 2022, 31 : 1325 - 1337
  • [46] Hot Deformation Behavior and Processing Map of Ti80 Alloy Based on MATLAB
    Quan Sijia
    Song Kexing
    Zhang Yanmin
    Zhang Binbin
    Wang Qi
    Li Yan
    RARE METAL MATERIALS AND ENGINEERING, 2019, 48 (11) : 3600 - 3607
  • [47] The hot deformation behavior and processing map of powder metallurgy NiAl-based alloy
    Huang, Zhenhan
    Lu, Zhen
    Jiang, Shaosong
    Zhang, Kaifeng
    JOURNAL OF MATERIALS RESEARCH, 2016, 31 (19) : 2964 - 2976
  • [48] Hot deformation behavior and processing map of Cu-Ni-Si-P alloy
    Zhang, Yi
    Liu, Ping
    Tian, Bao-hong
    Liu, Yong
    Li, Rui-qin
    Xu, Qian-qian
    TRANSACTIONS OF NONFERROUS METALS SOCIETY OF CHINA, 2013, 23 (08) : 2341 - 2347
  • [49] Hot deformation behavior, microstructure evolution and processing map of Cu-2Be alloy
    Mirahmadi, D.
    Dehghani, K.
    Shamsipur, A.
    Kalaki, A.
    JOURNAL OF MATERIALS RESEARCH AND TECHNOLOGY-JMR&T, 2023, 24 : 376 - 394
  • [50] Hot Deformation Behavior and Processing Map of Cu-Cr-Nb-Zr Alloy
    Krishna, S. Chenna
    Muneshwar, Pravin
    Pant, Bhanu
    Korla, Rajesh
    JOURNAL OF MATERIALS ENGINEERING AND PERFORMANCE, 2022, 31 (02) : 1325 - 1337