zhangbing
|
- Professor
- Supervisor of Doctorate Candidates
- Supervisor of Master's Candidates
- Name (English):Robert Zhang
- Name (Pinyin):zhangbing
- School/Department:冶金工程学院
- Education Level:Postgraduate (Doctoral)
- Business Address:西安建筑科技大学
- Contact Information:359702589@qq.com
- Degree:Doctoral degree
- Professional Title:Professor
- Status:Employed
- Academic Titles:教授
- Alma Mater:西安建筑科技大学
- Teacher College:高性能金属材料制备与加工领军教授团队
- Discipline:Materials Processing Engineering
Other Contact Information
No content
- Paper Publications
Flow Stress Prediction for Ti/Ni/Ti Laminated Composites During Hot Compressing
Release time:2022-10-31 Hits:
- Impact Factor:0.6
- DOI number:10.12442/j.issn.1002-185X.20210858
- Journal:Rare Metal Materials and Engineering
- Key Words:Ti/Ni/Ti laminated composites;hot compression;flow stress;constitutive equation
- Abstract:In order to establish a constitutive equation which can reasonably describe the Ti/Ni/Ti laminated composites process, the hot deformation behavior of Ti/Ni/Ti laminated composite during the bonding process was studied on Gleeble-3500 thermo-mechanical simulator at the temperature of 550 similar to 850 degrees C, strain rate of 0.001 similar to 1 s(-1), and deformation of 65%. Four constitutive models, including modified Johnson-Cook (MJC) model, train compensated Arrhenius (SCA) model, multivariate nonlinear regression (DMNR) model, and modified Inoue Sin (MIS) model were used to predict the elevated temperature flow behavior of laminated composite. A comparative research on the experimental values and the predicted values of the four models was conducted. Besides, the accuracy of the average absolute relative error (AARE), correlation coefficient (R) and the relative error was compared to confirm the reasonability of these four models. Results show that the MJC, DMNR and MIS model are not suitable for the description of flow behavior of Ti/Ni/Ti laminated composites, while the predicted values of SCA model agree well with the experimental values except under some deformation conditions.
- Indexed by:Article
- Discipline:Engineering
- First-Level Discipline:Materials Science and Engineering
- Document Type:R
- Volume:51
- Issue:10
- Page Number:3663-3678
- ISSN No.:1002-185X
- Translation or Not:no
- Date of Publication:2022-01-01
- Included Journals:SCI
