Low-cycle fatigue behavior of ULTIMET® alloy

被引:0
|
作者
L. Jiang
C. R. Brooks
P. K. Liaw
J. Dunlap
C. J. Rawn
R. A. Peascoe
D. L. Klarstrom
机构
[1] General Electric Company,Department of Materials Science and Engineering
[2] the University of Tennessee,Division of Biology
[3] the University of Tennessee,the High Temperature Materials Laboratory, Metals and Ceramics Division
[4] Oak Ridge National Laboratory,undefined
[5] Haynes International,undefined
[6] Inc.,undefined
关键词
Material Transaction; Fatigue Life; Total Strain Range; High Temperature Material Laboratory; Crisscross Network;
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摘要
The low-cycle fatigue behavior of ULTIMET®, a wrought cobalt-based alloy, was studied at the temperatures of 294, 873, and 1,173 K under isothermal conditions. A constant strain rate of 3.0×10−3 s−1 was used with fully reversed strain ranges between 0.4 and 2.5 pct. Observations on the strain vs fatigue-life curves, cyclic stress-strain responses, and fatigue fracture modes were obtained. The microstructure evolution of the ULTIMET alloy was characterized using X-ray diffraction, scanning-electron microscopy (SEM), and transmission-electron microscopy (TEM). For fatigue tests performed at 294 and 873 K, plastic-strain-induced, fcc-to-hcp phase transformations were observed. Twinning and carbide precipitation were found to contribute to the significant cyclic hardening observed at 1,173 K.
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页码:785 / 796
页数:11
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