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Physics of Metals and Metallography
Erschienen in: Physics of Metals and Metallography 8/2018

01.08.2018 | STRUCTURE, PHASE TRANSFORMATIONS, AND DIFFUSION

Simulation of the Evolution of Carbonitride Particles of Complex Composition upon Hot Deformation of a Low-Alloyed Steel

verfasst von: I. I. Gorbachev, A. Yu. Pasynkov, V. V. Popov

Erschienen in: Physics of Metals and Metallography | Ausgabe 8/2018

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Abstract

A model has been proposed for describing the evolution of several ensembles of carbonitride particles with complex compositions in low-alloyed steel upon hot deformation in the temperature range of stable austenite. In the model the mutual influence of changes upon deformation in structural parameters such as dislocation density and average austenite-grain size (with allowance for relaxation processes and precipitation processes) and the evolution of carbonitride phases have been considered. Likewise, the model takes into account the polydispersity of ensembles of precipitates. The results of calculations have been compared with the experimental data obtained in steel microalloyed with vanadium, niobium, and titanium
Vorheriger Artikel Shape Memory Effect in Corrosion-Resistant Steels Hardened by Various Carbides
Nächster Artikel Formation of the Structure, Phase Composition, and Properties in High-Strength Titanium Alloy upon Isothermal and Thermomechanical Treatment

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Literatur
1.
C. M. Sellars, “Modelling microstructural development during hot rolling,” Mater. Sci. Technol. 6, 1072–1081 (1990).CrossRef
2.
L. Quan, L. Zheng-dong, T. Guang-bo, T. Zhi-ling, and F. Siciliano, “Mathematical model of microstructure evolution of X60 line pipe steel during CSP hot rolling,” J. Iron Steel Res. Int. 17, 70–78 (2010).
3.
R. Sandstrom and R. Lagneborg, “A model for hot working occurring by recrystallization,” Acta Metall. 23, 387–398 (1975).CrossRef
4.
Y. Estrin, “Dislocation theory based constitutive modelling: Foundations and applications,” J. Mater. Process. Technol. 80-81, 33–39 (1998).CrossRef
5.
C. Roucoules, M. Pietrzyk, and P. D. Hodgson, “Analysis of work hardening and recrystallization during the hot working of steel using a statistically based internal variable model,” Mater. Sci. Eng., A 339, 1–9 (2003).CrossRef
6.
J. I. Choe, “Constitutive relations for determining the critical conditions for dynamic recrystallization behavior,” Phys. Met. Metallogr. 118, 378–384 (2017).
7.
M. Pietrzyk, “Through-process modelling of microstructure evolution in hot forming of steels,” J. Mater. Process. Technol. 125–126, 53–62 (2002).CrossRef
8.
V. V. Popov, “Simulation of the evolution of precipitates in dilute alloys,” Phys. Met. Metallogr. 93, 303 (2002).
9.
V. V. Popov, “Simulation of dissolution and coarsening of MnS precipitates in Fe–Si,” Phil. Mag. A 82, 17–27 (2002).CrossRef
10.
V. V. Popov and I. I. Gorbachev, “Simulation of the evolution of precipitates in multicomponent alloys,” Phys. Met. Metallogr. 95, 417–426 (2003).
11.
V. V. Popov and I. I. Gorbachev, “Numerical simulation of carbide and nitride precipitate evolution in steels,” Materialwiss. Werkstofftech. 36, 477–481 (2005).CrossRef
12.
V. V. Popov, I. I. Gorbachev, and J. A. Alyabieva, “Simulation of VC precipitate evolution in steels with consideration for the formation of new nuclei,” Philos. Mag. 85, 2449–2467 (2005).CrossRef
13.
I. I. Gorbachev, V. V. Popov, and E. N. Akimova, “Computer simulation of the diffusion interaction between carbonitride precipitates and austenitic matrix with allowance for the possibility of variation of their composition,” Phys. Met. Metallogr. 102, 18–28 (2006).CrossRef
14.
I. I. Gorbachev, V. V. Popov, and A. Yu. Pasynkov, “Simulation of evolution of precipitates of two carbonitride phases in Nb- and Ti-containing steels during isothermal annealing,” Phys. Met. Metallogr. 114, 741–751 (2013).CrossRef
15.
I. I. Gorbachev, V. V. Popov, and A. Yu. Pasynkov, “Simulation of precipitate ensemble evolution in steels with V and Nb,” Phys. Met. Metallogr. 116, 356–366 (2015).CrossRef
16.
V. V. Popov, I. I. Gorbachev, and A. Yu. Pasynkov, “Simulation of precipitates evolution in multiphase multicomponent systems with consideration of nucleation,” Philos. Mag. 96, 3632–3653 (2016).CrossRef
17.
I. I. Gorbachev, A. Yu. Pasynkov, and V. V. Popov, “Simulation of the effect of hot deformation on the size of austenite grain of low-alloy steels with carbonitride hardening,” Phys. Met. Metallogr. 119, 781–790 (2018).
18.
A. Timoshenkov, P. Warczok, M. Albu, J. Klarner, E. Kozeschnik, R. Bureau, and C. Sommitsch, “Modelling the dynamic recrystallization in C–Mn micro-alloyed steel during thermo-mechanical treatment using cellular automata,” Comput. Mater. Sci. 24, 85–94 (2014).CrossRef
19.
J. Svoboda, F. D. Fischer, P. Fratzl, and E. Kozeschnik, “Modelling of kinetics in multi-component multi-phase systems with spherical precipitates I: Theory,” Mater. Sci. Eng., A. 385, 166–174 (2004).
20.
E. Kozeschnik, J. Svoboda, and F. D. Fischer, “Modified evolution equations for the precipitation kinetics of complex phases in multi-component systems,” CALPHAD 28, 379–382 (2004).CrossRef
21.
Y. Estrin and H. Mecking, “A unified phenomenological description of work hardening and creep based on one-parameter models,” Acta Metall. 32, 57–70 (1984).CrossRef
22.
J. G. Lenard, M. Pietrzyk, and L. Cser, Mathematical and Physical Simulation of the Properties of Hot Rolled Products (Elsevier, Amsterdam, 1999).
23.
P. D. Hodgson and D. S. Collinson, The calculation of hot strength in plate and strip rolling of niobium microalloyed steels, in Proc. Symp. Matematical Modeling of Hot Rolling of Steel, Ed. by S. Yue (CIM, Hamilton,Ontario, Canada, 1990).
24.
A. Laasraoui and J. J. Jones, “Prediction of steel flow stresses at high temperatures and strain rates,” Metall. Trans. A 22, 151–160 (1991).CrossRef
25.
S. S. Gorelik, S. V. Dobatkin, and L. M. Kaputkina, Recrystallization of Metals and Alloys (MISIS, Moscow, 2005) [in Russian].
26.
W. J. Liu and J. J. Jonas, “Characterization of critical nucleus/matrix interface: application to Cu–Co alloys and micro alloyed austenite,” Mater. Sci. Technol. 5, 8–12 (1989).CrossRef
27.
W. J. Liu and J. J. Jonas, “Nucleation kinetics of Ti carbonitride in microalloyed austenite,” Metall. Trans. A 20, 689–697 (1989).CrossRef
28.
M. I. Gol’dshtein, V. V. Popov, A. E. Aksel’rod, and L. P. Zhitova, “Effect of the proportion and size of dispersed carbonitrides on the grain size,” Metalloved. Term. Obrab. Met., No. 8, 2–7 (1989).
29.
W. Roberts and B. Ahlblom, “A nucleation criterion for dynamic recrystallization during hot working,” Acta Metall. 26, 801–813 (1978).CrossRef
30.
I. I. Gorbachev, A. Yu. Pasynkov, and V. V. Popov, “Prediction of the austenite-grain size of microalloyed steels based on the simulation of the evolution of carbonitride precipitates,” Phys. Met. Metallogr. 116, 1127–1134 (2015).CrossRef
31.
P. D. Hodgson and R. K. Gibbs, “A Mathematical model to predict the mechanical properties of hot rolled C–Mn and microalloyed steels,” ISIJ Int. 32, 1329–1338 (1992).CrossRef
32.
W. J. Liu and J. J. Jonas, “Nucleation kinetics of Ti carbonitride in microalloyed austenite,” Metall. Mater. Trans. A 20, 689–697 (1989).CrossRef
33.
E. J. Pavlina, C. J. Van Tyne, and J. G. Speer, “Effects of combined silicon and molybdenum alloying on the size and evolution of microalloy precipitates in HSLA steels containing niobium and titanium,” Mater. Charact. 105, 35-46 (2015).CrossRef
34.
Certificate of the state registration of the program for the EVM 2011618874 / IMP Equilibriun. – 15.11.2011.
35.
V. V. Popov and I. I. Gorbachev, “Analysis of solubility of carbides, nitrides, and carbonitrides is steels using methods of computer thermodynamics: I. Description of thermodynamic properties. Computation procedure,” Phys. Met. Metallogr. 98, 344–354 (2004).
36.
I. I. Gorbachev and V. V. Popov, “Analysis of the solubility of carbides, nitrides, and carbonitrides in steels using methods of computer thermodynamics: IV. Solubility of carbides, nitrides, and carbonitrides in the Fe–Nb–C, Fe–Nb–N, and Fe–Nb–C–N systems,” Phys. Met. Metallogr. 110, 52–61 (2010).CrossRef
37.
I. I. Gorbachev, V. V. Popov and A. Yu. Pasynkov, “Calculations of the influence of alloying elements (Al, Cr, Mn, Ni, Si) on the solubility of carbonitrides in low-carbon low-alloy steels,” Phys. Met. Metallogr. 117, 1226–1236 (2016).CrossRef
38.
Certificate of the state registration of the program for the EVM 2015663347 / Evo PCE+. – 27.10.2015.
Metadaten
Titel
Simulation of the Evolution of Carbonitride Particles of Complex Composition upon Hot Deformation of a Low-Alloyed Steel
verfasst von
I. I. Gorbachev
A. Yu. Pasynkov
V. V. Popov
Publikationsdatum
01.08.2018
Verlag
Pleiades Publishing
Erschienen in
Physics of Metals and Metallography / Ausgabe 8/2018
Print ISSN: 0031-918X
Elektronische ISSN: 1555-6190
DOI
https://doi.org/10.1134/S0031918X18080021

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