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Study on stress relaxation characteristics of FGH95 powder superalloy treated by laser shock peening

材料科学 高温合金 残余应力 喷丸 放松(心理学) 应力松弛 休克(循环) 激光喷丸 喷丸 冶金 复合材料 循环应力 合金 压力(语言学) 蠕动 哲学 医学 社会心理学 语言学 心理学 内科学
作者
Haiyan Zhu,Xiangming Qu,Jun Cao,Xiaojun Guo,Yanyun Zhao,Xu Wang,Wenjun Wang,Yongkang Zhang
出处
期刊:Materials research express [IOP Publishing]
卷期号:9 (10): 106502-106502 被引量:1
标识
DOI:10.1088/2053-1591/ac95f9
摘要

Abstract Aiming at the phenomenon that the residual stress induced by Laser Shock Peening (LSP) will relax and redistribute under various loads, temperature, cyclic load, and the dual treatment of temperature and cyclic load on the residual stress relaxation of FGH95 powder superalloy after LSP treatment were studied, and the analysis model of relevant residual stress relaxation was constructed. The purpose is to understand the strengthening effect and stability of the alloy under temperature and cyclic load after LSP treatment. With the increase of treatment temperature, the relaxation of residual stress became more and more obvious. Most of the residual stress relaxation occurred in the first 30 min of temperature treatment, then slowed down and stabilized after 1 h. The residual stress was initially relaxed in the first 50 cycles, remained roughly unchanged between 50 and 5000 cycles. The intensify of the cyclic load increasing, adding material yield level, further plastic deformation and residual stress relaxation rate increases. With the increase of load intensify and load ratio, residual stress relaxation was also increased. The residual stress relaxation rate after 600 °C and cyclic load treatment was 56.2%, both greater than that after 600 °C or cyclic treatment of 25 °C, but less than the sum of the two conditions. The results of this paper provide a reference for the LSP of the FGH95 powder superalloy turbine disk and other aero engine parts.

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