Creep-fatigue behavior of nickel-based single crystal superalloy with different orientations: Experimental characterization and multi-scale simulation

[1]  Run-Zi Wang,et al.  Geometric discontinuity effect on creep-fatigue behaviors in a nickel-based superalloy hole structure considering ratcheting deformation , 2023, International Journal of Fatigue.

[2]  A. Alankar,et al.  Insights into fracture behavior of Ni-based superalloy single crystals: An atomistic investigation , 2023, Journal of Alloys and Compounds.

[3]  Xian‐Cheng Zhang,et al.  Creep-fatigue damage mechanisms and life prediction based on crystal plasticity combined with grain boundary cavity model in a nickel-based superalloy at 650°C , 2023, International Journal of Plasticity.

[4]  Xiaoguang Yang,et al.  A novel creep-fatigue life evaluation method for ceramic-composites components , 2023, International Journal of Mechanical Sciences.

[5]  Dou Xuezheng,et al.  Exploring low cycle fatigue anisotropy and the failure mechanism of the DD412 single crystal alloy for aeroengines , 2022, International Journal of Fatigue.

[6]  H. Tan,et al.  Stress rupture anisotropy of a Ru-containing fourth-generation single crystal superalloy at 760 °C and 1100 °C , 2022, Materials Science and Engineering: A.

[7]  Yanfei Gao,et al.  Revealing the influential mechanism of strain ranges on cyclic-life saturation during creep-fatigue in Nickel-based superalloy DZ445 , 2022, International Journal of Plasticity.

[8]  Xian‐Cheng Zhang,et al.  Life prediction and damage analysis of creep-fatigue combined with high-low cycle loading by using a crystal plasticity-based approach , 2022, International Journal of Fatigue.

[9]  Yanfei Gao,et al.  Saturation effect of creep-fatigue cyclic-life for Nickel-based superalloy DZ445 under long-term tensile dwell periods at 900 °C , 2022, Journal of Materials Research and Technology.

[10]  Xiancheng Zhang,et al.  A universal constitutive model for hybrid stress-strain controlled creep-fatigue deformation , 2022, International Journal of Mechanical Sciences.

[11]  Bin Chen,et al.  Effect of rhenium on low cycle fatigue behaviors of Ni-based single crystal superalloys: A molecular dynamics simulation , 2022, Journal of Materials Research and Technology.

[12]  Yanfei Gao,et al.  Comparison of the creep-fatigue cyclic life saturation effect for three different superalloys , 2022, Materials Science and Engineering: A.

[13]  L. Zhang,et al.  Effects of temperature and microstructure on low cycle fatigue behaviour of a PM Ni-based superalloy: EBSD assessment and crystal plasticity simulation , 2022, International Journal of Fatigue.

[14]  Mingxiang Chen,et al.  Orientation dependence of microstructure deformation mechanism and tensile mechanical properties of Nickel-based single crystal superalloys: A molecular dynamics simulation , 2022, Computational Materials Science.

[15]  Xian‐Cheng Zhang,et al.  A dual-scale modelling approach for creep-fatigue crack initiation life prediction of holed structure in a nickel-based superalloy , 2022, International Journal of Fatigue.

[16]  Bin Chen,et al.  Molecular dynamics simulation of rhenium effects on creep behavior of Ni-based single crystal superalloys , 2022, Progress in Natural Science: Materials International.

[17]  Fencheng Liu,et al.  Creep-fatigue rupture mechanism and microstructure evolution around film-cooling holes in nickel-based DS superalloy specimen , 2021, Intermetallics.

[18]  M. Sakane,et al.  Tension–torsion Multiaxial Creep–Fatigue Lives of the Nickel-based Superalloy Alloy 738LC , 2021, International Journal of Fatigue.

[19]  Shun‐Peng Zhu,et al.  Cycle-dependent creep-fatigue deformation and life predictions in a nickel-based superalloy at elevated temperature , 2021 .

[20]  Junhong Zhang,et al.  Modeling and effect analysis on crack growth behavior of Hastelloy X under high temperature creep-fatigue interaction , 2021 .

[21]  A. Khoei,et al.  Atomistic simulation of creep deformation mechanisms in nickel-based single crystal superalloys , 2021 .

[22]  Shun‐Peng Zhu,et al.  A crystal plasticity-based approach for creep-fatigue life prediction and damage evaluation in a nickel-based superalloy , 2021 .

[23]  W. Polkowski.  Crystal Plasticity , 2021, Crystals.

[24]  Xide Li,et al.  Creep–fatigue interaction behavior of nickel-based single crystal superalloy at high temperature by in-situ SEM observation , 2020 .

[25]  Mingxiang Chen,et al.  Molecular dynamics study of fatigue mechanical properties and microstructural evolution of Ni-based single crystal superalloys under cyclic loading , 2020 .

[26]  Y. Zhong,et al.  On the biaxial thermal creep-fatigue behavior of Ni-base Alloy 617 at 950 °C , 2020 .

[27]  Z. Y. Yu,et al.  The effect of stress state on rafting mechanism and cyclic creep behavior of Ni-base superalloy , 2020 .

[28]  Xian‐Cheng Zhang,et al.  Creep-fatigue life prediction in nickel-based superalloy GH4169 based on microstructural damage quantification with the help of electron backscatter diffraction , 2020 .

[29]  Rongqiao Wang,et al.  Damage‐based low‐cycle fatigue lifetime prediction of nickel‐based single‐crystal superalloy considering anisotropy and dwell types , 2020, Fatigue & Fracture of Engineering Materials & Structures.

[30]  H. Jing,et al.  Modelling creep-fatigue behaviours using a modified combined kinematic and isotropic hardening model considering the damage accumulation , 2019, International Journal of Mechanical Sciences.

[31]  A. K. Bhaduri,et al.  Studies on creep-fatigue interaction behaviour of Alloy 617M , 2018, Materials Science and Engineering: A.

[32]  Lianyong Xu,et al.  A novel creep–fatigue interaction damage model with the stress effect to simulate the creep–fatigue crack growth behavior , 2017 .

[33]  Z. Yue,et al.  Investigation on microstructure evolution and fracture morphology of single crystal nickel-base superalloys under creep-fatigue interaction loading , 2017 .

[34]  Xudong Sun,et al.  High Temperature Stress Rupture Anisotropy of a Ni-Based Single Crystal Superalloy , 2016 .

[35]  Jia Huang,et al.  Effects of crystallographic orientations and dwell types on low cycle fatigue and life modeling of a SC superalloy , 2013 .

[36]  G. P. P. Pun,et al.  Development of an interatomic potential for the Ni-Al system , 2009 .

[37]  J. C. Hamilton,et al.  Dislocation nucleation and defect structure during surface indentation , 1998 .

[38]  S. Li,et al.  HIGH TEMPERATURE FATIGUE-CREEP BEHAVIOUR OF SINGLE CRYSTAL SRR99 NICKEL BASE SUPERALLOYS: PART II—FATIGUE-CREEP LIFE BEHAVIOUR , 1995 .

[39]  Steve Plimpton,et al.  Fast parallel algorithms for short-range molecular dynamics , 1993 .

[40]  Hoover,et al.  Canonical dynamics: Equilibrium phase-space distributions. , 1985, Physical review. A, General physics.

[41]  S. Nosé.  A unified formulation of the constant temperature molecular dynamics methods , 1984 .

[42]  M. Baskes,et al.  Embedded-atom method: Derivation and application to impurities, surfaces, and other defects in metals , 1984 .

[43]  Alan Needleman,et al.  Material rate dependence and localized deformation in crystalline solids , 1983 .

[44]  Alan Needleman,et al.  An analysis of nonuniform and localized deformation in ductile single crystals , 1982 .

[45]  J. Rice.  Inelastic constitutive relations for solids: An internal-variable theory and its application to metal plasticity , 1971 .

[46]  R. W. Neu,et al.  Crystal viscoplasticity model for the creep-fatigue interactions in single-crystal Ni-base superalloy CMSX-8 , 2018 .

[47]  A. Stukowski.  Modelling and Simulation in Materials Science and Engineering Visualization and analysis of atomistic simulation data with OVITO – the Open Visualization Tool , 2009 .