EBSD analysis of microstructure between liquid core forging process and traditional forging process

被引:0
|
作者
Wu Yong-qiang
Wang Yong-shan
Wang Kai-kun
机构
[1] University of Science and Technology Beijing,School of Materials Science and Engineering
关键词
Liquid core forging; Traditional forging; Orientation; Geometrically necessary dislocation density; Kernel average misorientation;
D O I
暂无
中图分类号
学科分类号
摘要
Assab 718 was a kind of plastic die steel and the daughter grains were the tempered sorbite after normalizing and high-temperature tempering. The daughter grains had a specific orientation relationship with the parent grains, which could be reconstructed based on the electron backscattered diffraction tests. The evolution laws from the parent grains to the daughter grains under the two forging processes were compared by HKL Channel 5. The results showed that the parent grains were finer and more evenly distributed under the new process. The recrystallization volume fraction of those grains was less than that under the traditional one. From the parent grains to the daughter grains, the orientation of the maximum texture intensity and the maximum section location was changed under the liquid core forging process. While the orientation of the maximum texture intensity of the parent grains under the traditional one was a common S-texture and that of the daughter grains was not obvious. The geometrically necessary dislocation density was calculated based on the kernel average misorientation. This study is necessary to reveal the micro-deformation mechanism of the new and the traditional forging processes. It can provide theoretical guidance for implementing the liquid core forging process.
引用
收藏
页码:1653 / 1664
页数:11
相关论文
共 50 条
  • [1] EBSD analysis of microstructure between liquid core forging process and traditional forging process
    Wu, Yong-qiang
    Wang, Yong-shan
    Wang, Kai-kun
    INTERNATIONAL JOURNAL OF INTERACTIVE DESIGN AND MANUFACTURING - IJIDEM, 2023, 17 (04): : 1653 - 1664
  • [2] Numerical and physical simulation of the forging process with liquid core
    Yong-qiang Wu
    Wen Fu
    Kai-kun Wang
    The International Journal of Advanced Manufacturing Technology, 2022, 119 : 1167 - 1177
  • [3] Numerical and physical simulation of the forging process with liquid core
    Wu, Yong-qiang
    Fu, Wen
    Wang, Kai-kun
    INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2022, 119 (1-2): : 1167 - 1177
  • [4] A Review of Liquid Forging Process
    Huang Xina
    Zhong Zhiping
    Wang Wei
    Li Fengjiao
    Qiu Dehua
    Peng Chong
    MATERIAL DESIGN, PROCESSING AND APPLICATIONS, PARTS 1-4, 2013, 690-693 : 2275 - 2279
  • [5] Analysis of Forging Compliance Process and Design of the Forging Simulator
    Zhang, Pu
    Yao, Zhenqiang
    Du, Zhengchun
    INTELLIGENT ROBOTICS AND APPLICATIONS, PT II, 2010, 6425 : 276 - 284
  • [6] Research on Homogeneity and Service Performance under the Liquid Core Forging Process
    Yongqiang Wu
    Yongshan Wang
    Kaikun Wang
    Yu Hou
    Yuwei Wang
    Metallography, Microstructure, and Analysis, 2023, 12 : 608 - 621
  • [7] Analysis of microstructure evolution in the forging process of a windmill main shaft
    Sinczak, Jan
    Skubisz, Piotr
    Pietrzyk, Maciej
    Lukaszek-Solek, Aneta
    STEEL RESEARCH INTERNATIONAL, 2006, 77 (08) : 583 - 589
  • [8] Research on Homogeneity and Service Performance under the Liquid Core Forging Process
    Wu, Yongqiang
    Wang, Yongshan
    Wang, Kaikun
    Hou, Yu
    METALLOGRAPHY MICROSTRUCTURE AND ANALYSIS, 2023, 12 (04) : 608 - 621
  • [9] Upper bound analysis of forging penetration in a radial forging process
    Wu, Yunjian
    Dong, Xianghuai
    INTERNATIONAL JOURNAL OF MECHANICAL SCIENCES, 2015, 103 : 1 - 8
  • [10] On the mechanism of flowing process in indirect liquid forging
    Hu, Jianhua
    Wuhan Jiaotong Keji Daxue Xuebao/Journal of Wuhan Transportation University, 2000, 24 (02): : 180 - 184