J. Mater. Sci. Technol. ›› 2022, Vol. 113: 82-89.DOI: 10.1016/j.jmst.2021.09.063
• Research article • Previous Articles Next Articles
X.J. Guana,c, Z.P. Jiaa,c, S.M. Lianga,c, F. Shia,c, X.W. Lia,b,*(
)
Received:2021-08-09
Revised:2021-09-01
Accepted:2021-09-01
Published:2021-12-30
Online:2022-06-24
Contact:
X.W. Li
About author:*Department of Materials Physics and Chemistry, School of Materials Science and Engineering, Northeastern University, Shenyang 110819, China.E-mail address: xwli@mail.neu.edu.cn (X.W. Li).X.J. Guan, Z.P. Jia, S.M. Liang, F. Shi, X.W. Li. A pathway to improve low-cycle fatigue life of face-centered cubic metals via grain boundary engineering[J]. J. Mater. Sci. Technol., 2022, 113: 82-89.
Fig. 1. Comparisons of the GBCD (a, b) and corresponding RHAGB networks (a', b') of non-GBE (a, a') and GBE (b, b') samples. The black arrows indicate the position of RHAGB network interrupted by SBs.
Fig. 2. Comparison of tension-tension fatigue lives of non-GBE and GBE samples. The dashed lines are linear fitting curves of fatigue life. The arrow indicates the improvement of fatigue life by GBE becomes significant with the increase of stress amplitude.
Fig. 3. SEM micrographs showing the lateral surface deformation and damage characteristics of non-GBE (a-c) and GBE (d-f) samples fatigued at different amplitudes. (a, d) 125 MPa, (b, e) 150 MPa, (c, f) 175 MPa.
Fig. 4. SEM micrographs showing the fracture characteristics of non-GBE (a-c) and GBE (d-f) samples fatigued at different amplitudes, and variation trends (g) of the area of fatigue crack initiation and the ratio of intergranular area in these two samples with increasing stress amplitude. (a, d) 125 MPa, (b, e) 150 MPa, (c, f) 175 MPa. The red dashed lines are the boundaries between crack source and crack propagation. The yellow doted frames clearly show the magnified typical morphological features.
Fig. 5. Kernel average misorientation (KAM) distribution showing the deformation localization characteristics of non-GBE (a-c) and GBE (d-f) samples fatigued at different amplitudes. (a, d) 125 MPa, (b, e) 150 MPa, (c, f) 175 MPa. The black arrows and red arrows indicate the position of GBs with higher KAM and the interiors of grains with lower KAM in non-GBE samples, respectively (a-c), and there is no such obvious difference in KAM distribution in GBE samples (d-f).
Fig. 6. TEM micrographs showing the deformation microstructures in non-GBE (a, b) and GBE (c, d) samples fatigued at the amplitude of 125 MPa.
Fig. 7. TEM micrographs showing the deformation microstructures in non-GBE (a, b) and GBE (c, d) samples fatigued at the amplitude of 150 MPa.
Fig. 8. TEM micrographs showing the deformation microstructures in non-GBE (a, b) and GBE (c, d) samples fatigued at the amplitude of 175 MPa.
Fig. 9. Schematic diagram showing the mechanism for improving the tension-tension fatigue properties of FCC metals by GBE treatment.
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