#DA BEI ZHOU CRACK#

Modeling of temperature influence on the fatigue crack growth behavior of superalloys. HUANG Da-wei, YAN Xiao-jun, LI Pei-yuan, QIN Xiao-yu, ZHANG Xiao-yong, QI Ming-jing, LIU Zhi-wei. Materials Science and Engineering A, 2020, 793: 139821. Electron-microscopic analyses on high-temperature fatigue crack growth mechanism in a Ni-based single crystal superalloy. TAKAHASHI Y, KABOYASHI D, KASHIHARA M, KOZAMA T, ARAL S. Acta Metallurgica Sinica (English Letters), 2019, 32: 381вЂ“390. Effects of crystal orientations on the low-cycle fatigue of a single-crystal nickel-based superalloy at 980 вЊ. LIU Liu, MENG Jie, LIU Jin-lai, ZHANG Hai-feng, SUN Xu-dong, ZHOU Yi-zhou. PINEAU A, MCDOWELL D L, BUSSO E P, ANTOLOVICH S D. Fatigue behavior of the nickel-base superalloy Waspaloyв„ў under proportional biaxial-planar loading at high temperature. KULAWINSKI D, HENKEL S, HOLLANDER D, THIELE M, GAMPE U, BIERMANN H. High frequency in situ fatigue response of Ni-base superalloy RenГ© -N5 microcrystals. LAVENSTEIN S, CRAWFORD B, SIM G, SHADE P A, WOODWARD C, ELAWADY J A. Microstructural and compositional design of Ni-based single crystalline superalloys-A review. LONG Hai-bo, MAO Sheng-cheng, LIU Yi-nong, ZHANG Ze, HAN Xiao-dong. Fatigue strain mapping via digital image correlation for Ni-based superalloys: The role of thermal activation on cube slip. Theoretical and Applied Fracture Mechanics, 2015, 76: 27вЂ“34. High temperature fatigue tests of notched specimens made of titanium Grade 2. Thermomechanical fatigue life prediction method for nickel-based superalloy in aeroengine turbine discs under multiaxial loading. LI Fang-dai, SHANG De-guang, ZHANG Cheng-cheng, LIU Xiao-dong, LI Dao-hang, WANG Jin-jie, HUI Jie, LI Zhi-gao, CHEN Bo. The role of S phase for fatigue crack propagation behavior in a Ni base superalloy at room temperature. International Journal of Fatigue, 2015, 81: 191вЂ“201.ДЄN Jin-lai, WANG Lei, LIU Yang, CAI Wen-liang, SONG Xiu. Influence of coarsened and rafted microstructures on the thermomechanical fatigue of a Ni-base superalloy. KIRKA M M, BRINDLEY K A, NEU R W, ANTOLOVICH S D, SHINDE S R, GRAVETT P W. A multiscale study on the morphology and evolution of slip bands in a nickel-based superalloy during low cycle fatigue. LEON C F D, SCHLUTTER R, JACKSON T, GALINDO N E I, RAE C M F. Fatigue and Fracture of Engineering Materials and Structures, 2016, 39: 292вЂ“306. Generalized approach to estimation of strains and stresses at blunt V-notches under non-localized creep. High temperature fatigue tests of un-notched and notched specimens made of 40CrMoV13.9 steel.

Materials Characterization, 2015, 106: 375вЂ“381.Д«ERTO F, GALLO P, LAZZARIN P. Effect of microstructural characteristics on the low cycle fatigue behaviors of cast Ni-base superalloys. KIM I S, CHOI B G, JUNG J E, DO J, JO C Y. Low cycle fatigue life evaluation according to temperature and orientation in nickel-base superalloy. Effects of grain size on the high-cycle fatigue behavior of IN 792 superalloy.

ДU Bei-ning, YANG Jin-xia, CUI Chuan-yong, SUN Xiao-feng. Advanced Engineering Materials, 2018: 1800647. Low cycle fatigue failure analysis of a Ni-based single crystal superalloy at 850 вЊ. ZHANG Xu-hui, GAO Hang-shan, WEN Zhi-xun, ZHANG Hao-cheng, YUE Zhu-feng. Journal of the Korean Society for Precision Engineering, 2019, 36(3): 271вЂ“279. Low cycle fatigue characteristics of a Ni-based single crystal superalloy CMSX-4 at elevated temperature. Materials Science and Engineering A, 2016, 655: 237вЂ“243.Д¬HOI J G, SEOK C S, WEE S U, CHUNG E S, KWON S H. High temperature creep properties of directionally solidified CM-247LC Ni-based superalloy. CHIOU Mau-sheng, JIAN Sheng-rui, YEH An-chou, KUO Chen-ming, JUANG Jenh-yih.

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