A Two-Stage Constitutive Model and Microstructure Evolution Simulation of a Nickel-Based Superalloy during High Temperature Deformation
Source abstract
Abstract
Nickel-based superalloys have been widely used in aerospace, warship, energy and other fields due to their unique mechanical and physical properties. High temperature compression experiments of a nickel-based superalloy have been carried out at various deformation temperatures and strain rates in the present study. The mechanical properties during high temperature compression experiments are strongly associated with the initial microstructure, deformation temperature and strain rate. Based on dislocation theory and dynamic recrystallization (DRX) kinetics, a two-stage constitutive model for the dynamic recovery stage and DRX stage is developed. The calculated values are in good agreement with the experimental ones, indicating that the established constitutive model has good accuracy. Cellular automaton simulation realized the visualization of the evolution process of recrystallized grains during high temperature compression deformation. DRX grains nucleate and grow gradually with increasing strain. As the deformation temperature increases and the strain rate decreases, DRX volume fraction gradually increases. The present study has important guiding significance for studying the plastic deformation behavior during high temperature deformation and promoting their related applications.
Source: expertdata · Quality: candidate unverified · Source record ↗
Research context
OpenAlex topics: Metallurgy and Material Forming · Microstructure and mechanical properties · Microstructure and Mechanical Properties of Steels
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (44)
Show source-provided references
1. S. Lv, C. Jia, X. He, Z. Wan, Y. Li, and X. Qu, Hot Deformation Characteristics and Dynamic Recrystallization Mechanisms of a Novel Nickel-Based Superalloy, Adv. Eng. Mater., 2020, 22, p 2000622.10.1002/adem.202000622 ↗
2. T.M. Smith, P. Bonacuse, J. Sosa, M. Kulis, and L. Evans, A Quantifiable and Automated Volume Fraction Characterization Technique for Secondary and Tertiary γ′ Precipitates in Ni-Based Superalloys, Mater. Charact., 2018, 140, p 86–94.10.1016/j.matchar.2018.03.051 ↗
3. Z. Zhu, J. Chen, Y. Cai, J. Li, and Y. Shen, Effect of Heat Treatment on the Microstructure and Fracture Behaviors of a Ni–Cr–Fe Superalloy, Adv. Eng. Mater., 2020, 22, p 1901070.10.1002/adem.201901070 ↗
4. Y.Q. Ning, Z.K. Yao, Y.Y. Lei, H.Z. Guo, and M.W. Fu, Hot Deformation Behavior of the Post-Cogging FGH4096 Superalloy with Fine Equiaxed Microstructure, Mater. Charact., 2011, 62, p 887–893.10.1016/j.matchar.2011.06.004 ↗
5. Y.C. Lin, D.X. Wen, Y.C. Huang, X.M. Chen, and X.W. Chen, A Unified Physically Based Constitutive Model for Describing Strain Hardening Effect and Dynamic Recovery Behavior of a Ni-Based Superalloy, J. Mater. Res., 2015, 30, p 3784–3794.10.1557/jmr.2015.368 ↗
6. N.E. Ugodilinwa, M. Khoshdarregi, and O.A. Ojo, Analysis and Constitutive Modeling of High Strain Rate Deformation Behavior of Haynes 282 Aerospace Superalloy, Mater. Today Commun., 2019, 20, p 100545.10.1016/j.mtcomm.2019.100545 ↗
7. P. Liu, R. Zhang, Y. Yuan, C. Cui, Y. Zhou, and X. Sun, Hot Deformation Behavior and Workability of a Ni–Co Based Superalloy, J. Alloy. Compd., 2020, 831, p 154618.10.1016/j.jallcom.2020.154618 ↗
8. W.Y. Wang, Q.L. Pan, Y.W. Sun, X.D. Wang, A.D. Li, and W.B. Song, Study on Hot Compressive Deformation Behaviors and Corresponding Industrial Extrusion of as-Homogenized Al-7.82 Zn-1.96 Mg-2.35 Cu-0.11 Zr Alloy, J. Mater. Sci., 2018, 53, p 11728–11748.10.1007/s10853-018-2388-z ↗
9. S.A. Sani, H. Arabi, and G.R. Ebrahimi, Hot Deformation Behavior and DRX Mechanism in a γ-γ/Cobalt-Based Superalloy, Mater. Sci. Eng. A, 2019, 764, p 138165.10.1016/j.msea.2019.138165 ↗
10. G. Tan, H.Z. Li, Y. Wang, L. Yang, Z.Q. Huang, S.C. Qiao, and M.X. Liu, Physical-Based Constitutive Modeling of Hot Deformation in a Hot-Extruded Powder Metallurgy Nickel-Based Superalloy, J. Mater. Eng. Perform., 2021, 30, p 794–804.10.1007/s11665-020-05291-x ↗
11. M. Wang, C. Sun, M.W. Fu, Z. Liu, and C. Wang, Experimental Investigations and Constitutive Modeling of the Dynamic Recrystallization Behavior of Inconel 740 Superalloy, Mater. Sci. Eng. A, 2020, 793, p 139939.10.1016/j.msea.2020.139939 ↗
12. C. Lei, Q.D. Wang, H.P. Tang, T.W. Liu, Z.Y. Li, H.Y. Jiang, K. Wang, M. Ebrahimi, and W. Ding, Hot Deformation Constitutive Model and Processing Maps of Homogenized Al-5Mg-3Zn-1Cu Alloy, J. Mater. Res. Technol., 2021, 14, p 324–339.10.1016/j.jmrt.2021.06.069 ↗
13. Y.B. Tan, Y.H. Ma, and F. Zhao, Hot Deformation Behavior and Constitutive Modeling of Fine Grained Inconel 718 Superalloy, J. Alloys Compd., 2018, 741, p 85–96.10.1016/j.jallcom.2017.12.265 ↗
14. S.H. Liu, Q.L. Pan, H. Li, Z.Q. Huang, K. Li, X. He, and X.Y. Li, Characterization of Hot Deformation Behavior and Constitutive Modeling of Al-Mg-Si-Mn-Cr Alloy, J. Mater. Sci., 2019, 54, p 4366–4383.10.1007/s10853-018-3116-4 ↗
15. Y.L. Zhu, Y. Cao, C.J. Liu, R. Luo, N. Li, G. Shu, G.J. Huang, and Q. Liu, Dynamic Behavior and Modified Artificial Neural Network Model for Predicting Flow Stress During Hot Deformation of Alloy 925, Mater. Today Commun., 2020, 25, p 101329.10.1016/j.mtcomm.2020.101329 ↗
16. S.A. Sani, G.R. Ebrahimi, H. Vafaeenezhad, and A.R. Kiani-Rashid, Modeling of Hot Deformation Behavior and Prediction of Flow Stress in a Magnesium Alloy Using Constitutive Equation and Artificial Neural Network (ANN) Model, J. Magnes. Alloy, 2018, 6, p 134–144.10.1016/j.jma.2018.05.002 ↗
17. P. Wan, H. Zou, K.L. Wang, and Z.Z. Zhao, Research on Hot Deformation Behavior of Zr-4 Alloy Based on PSO-BP Artificial Neural Network, J. Alloys. Compd., 2020, 826, p 154047.10.1016/j.jallcom.2020.154047 ↗
18. D. Jia, W. Sun, D. Xu, L. Yu, X. Xin, W. Zhang, and F. Qi, Abnormal Dynamic Recrystallization Behavior of a Nickel Based Superalloy During Hot Deformation, J. Alloy. Compd., 2019, 787, p 196.10.1016/j.jallcom.2019.02.055 ↗
19. M. Azarbarmas, M. Aghaie-Khafri, J.M. Cabrera, and J. Calvo, Dynamic Recrystallization Mechanisms and Twining Evolution During Hot Deformation of Inconel 718, Mater. Sci. Eng. A, 2016, 678, p 137–152.10.1016/j.msea.2016.09.100 ↗
20. G. He, F. Liu, L. Huang, Z. Huang, and L. Jiang, Controlling Grain Size Via Dynamic Recrystallization in an Advanced Polycrystalline Nickel Base Superalloy, J. Alloy. Compd., 2017, 701, p 909–919.10.1016/j.jallcom.2017.01.179 ↗
21. S.K. Pradhan, S. Mandal, C.N. Athreya, K.A. Babu, B. De Boer, and V.S. Sarma, Influence of Processing Parameters on Dynamic Recrystallization and the Associated Annealing Twin Boundary Evolution in a Nickel Base Superalloy, Mater. Sci. Eng. A, 2017, 700, p 49–58.10.1016/j.msea.2017.05.109 ↗
22. G.Z. Quan, Q. Liu, J. Zhao, W. Xiong, and R.J. Shi, Determination of Dynamic Recrystallization Parameter Domains of Ni80A Superalloy by Enhanced Processing Maps, T. Nonferr. Metal. Soc., 2019, 29, p 1449–1464.10.1016/S1003-6326(19)65052-1 ↗
23. A. Chamanfar, H.S. Valberg, B. Templin, J.E. Plumeri, and W.Z. Misiolek, Development and Validation of a Finite-Element Model for Isothermal Forging of a Nickel-Base Superalloy, Materialia, 2019, 6, p 100319.10.1016/j.mtla.2019.100319 ↗
24. R.C. Buckingham, C. Argyrakis, M.C. Hardy, and S. Birosca, The Effect of Strain Distribution on Microstructural Developments During Forging in a Newly Developed Nickel Base Superalloy, Mater. Sci. Eng. A, 2016, 654, p 317–328.10.1016/j.msea.2015.12.042 ↗
25. I. Poláková, M. Duchek, and L. Malencek, FEM Simulation of Open Die Forging of a Plate From Material NIMONIC 80A in DEFORM 3D, Arch. Mater. Sci. Eng., 2014, 66, p 31–36.
26. M. Pérez, Microstructural Evolution of Nimonic 80a During Hot Forging Under Non-Isothermal Conditions of Screw Press, J. Mater. Process. Tech., 2018, 252, p 45–57.10.1016/j.jmatprotec.2017.09.014 ↗
27. E. Alabort, R.C. Reed, and D. Barba, Combined Modelling and Miniaturised Characterisation of High-Temperature Forging in a Nickel-Based Superalloy, Mater. Des., 2018, 160, p 683–697.10.1016/j.matdes.2018.09.048 ↗
28. D.J. Cha, D.K. Kim, J.R. Cho, and W.B. Bae, Hot Shape Forging of Gas Turbine Disk Using Microstructure Prediction and Finite Element Analysis, Int. J. Precis. Eng. Man., 2011, 12, p 331–336.10.1007/s12541-011-0043-6 ↗
29. M.S. Chen, W.Q. Yuan, Y.C. Lin, H.B. Li, and Z.H. Zou, Modeling and Simulation of Dynamic Recrystallization Behavior for 42CrMo Steel by an Extended Cellular Automaton Method, Vacuum, 2017, 146, p 142–151.10.1016/j.vacuum.2017.09.041 ↗
30. H. Zhang, J. Wang, Q. Chen, D. Shu, C. Wang, G. Chen, and Z. Zhao, Study of Dynamic Recrystallization Behavior of T2 Copper in Hot Working Conditions by Experiments and Cellular Automaton Method, J. Alloy. Compd., 2019, 784, p 1071–1083.10.1016/j.jallcom.2019.01.132 ↗
31. X. Ji and Y. Shi, Simulation of the Microstructural Evolution During Dynamic Recrystallisation with a Modified Cellular Automaton, Philos. Mag. Lett., 2020, 100, p 105–115.10.1080/09500839.2020.1726522 ↗
32. J. Zhang, Z. Li, K. Wen, S. Huang, X. Li, H. Yan, and B. Xiong, Simulation of Dynamic Recrystallization for an Al-Zn-Mg-Cu Alloy Using Cellular Automaton, Prog. Nat. Sci., 2019, 29, p 477–484.10.1016/j.pnsc.2019.04.002 ↗
33. F. Zhang, D. Liu, Y. Yang, C. Liu, Z. Zhang, H. Wang, and J. Wang, Investigation on the Meta-Dynamic Recrystallization Behavior of Inconel 718 Superalloy in the Presence of δ Phase Through a Modified Cellular Automaton Model, J. Alloy. Compd., 2020, 817, p 152773.10.1016/j.jallcom.2019.152773 ↗
34. Y.X. Liu, Y.C. Lin, H.B. Li, D.X. Wen, X.M. Chen, and M.S. Chen, Study of Dynamic Recrystallization in a Ni-Based Superalloy by Experiments and Cellular Automaton Model, Mater. Sci. Eng. A, 2015, 626, p 432–440.10.1016/j.msea.2014.12.092 ↗
35. Y.D. Jing, The Behavior of Grain Evolution and its Numerical Simulation during Isothermal Forging of GH4698 Turbine Disk, Yanshan University, China, 2016, p 8–12. (in Chinese).
36. H. Mecking and U.F. Kocks, Kinetics of Flow and Strain-Hardening, Acta Metall., 1981, 29, p 1865–1875.10.1016/0001-6160(81)90112-7 ↗
37. B.J. Lv, J. Peng, D.W. Shi, A.T. Tang, and F.S. Pan, Constitutive Modeling of Dynamic Recrystallization Kinetics and Processing Maps of Mg-2.0 Zn-0.3 Zr Alloy Based on True Stress–Strain Curves, Mater. Sci. Eng. A, 2013, 560, p 727–733.10.1016/j.msea.2012.10.025 ↗
38. M. Schikorra, L. Donati, L. Tomesani, and A.E. Tekkaya, Microstructure Analysis of Aluminum Extrusion: Prediction of Microstructure on AA6060 Alloy, J. Mater. Process. Tech., 2008, 201, p 156–162.10.1016/j.jmatprotec.2007.11.160 ↗
39. G. Gottstein, M. Frommert, M. Goerdeler, and N. Schäfer, Prediction of the Critical Conditions for Dynamic Recrystallization in the Austenitic Steel 800H, Mater. Sci. Eng. A, 2004, 387, p 604–608.10.1016/j.msea.2004.02.098 ↗
40. C. Zener and J.H. Hollomon, Effect of Strain Rate Upon Plastic Flow of Steel, J. Appl. Phys., 1944, 15, p 22–32.10.1063/1.1707363 ↗
41. C.M. Sellars and J.A. Whiteman, Recrystallization and Grain Growth in Hot Rolling, Met. Sci., 1979, 13, p 187–194.10.1179/msc.1979.13.3-4.187 ↗
42. R.L. Goetz and V. Seetharaman, Static Recrystallization Kinetics With Homogeneous and Heterogeneous Nucleation Using a Cellular Automata Model, Metall. Mater. Trans. A, 1998, 29, p 2307–2321.10.1007/s11661-998-0108-z ↗
43. W. Roberts and B. Ahlblom, A Nucleation Criterion for Dynamic Recrystallization During Hot Working, Acta Metall., 1978, 26, p 801–813.10.1016/0001-6160(78)90030-5 ↗
44. X.M. Chen, Y.C. Lin, D.X. Wen, J.L. Zhang, and M. He, Dynamic Recrystallization Behavior of a Typical Nickel-Based Superalloy During Hot Deformation, Mater. Des., 2014, 57, p 568–577.10.1016/j.matdes.2013.12.072 ↗