Abstract
A finite element method (FEM) was employed to aid in the thermodynamic analysis of the cooling process of steel containing nonmetallic inclusions in a homogenous, isotropic, single-phase steel matrix. Three different contact techniques available in ANSYS were used in a 2-D model of Al2O3 inclusions in a 1010 steel grade to define different types of inclusion-steel interfaces. Comparisons of these numerical techniques examine the effect of the characteristic of the interface on the residual stress concentration zone around inclusions embedded in a steel matrix with an initially free stress state and their thermal interaction during the cooling process from 1300°C. Results are presented to discuss the significance of the inclusion surface and boundary conditions (axisymmetric and fully constrained) on the stress distribution within the stress concentration zone in the vicinity of the interface.
Issue Section:
Research Papers
References
1.
Shtremel
, M. A.
, “Problems of the Metallurgical Quality of Steel (Nonmetallic Inclusion)
,” Moscow Institute of Steel and Alloys
(translated from Metallovedenie i Termicheskaya Obrabtka Metallov
), No. 8
, 1980
, pp. 2
–6
.2.
Muskhelishvili
, N. I.
, Some Basic Problems in the Mathematical Theory of Elasticity
, Naukam
, Moscow
, 1966
.3.
Neuber
, H.
, “Stress Concentrations
,” Gostekhizdat
, 1947
(in Russian).4.
Savin
, G. N.
, “Stress Concentrations Around Holes
,” Gostekhizdat
, 1951
(in Russian).5.
Pavlov
, I. M.
and Krupin
, A. M.
, Scientific Reports of Universities
, No. 1, Metallurgiya
, Moscow
, 1958
.6.
Pavlov
, I. M.
and Krupin
, A. V.
, Transactions of the A. A. Baikov Institute of Metallurgy
, No. 7, Izd. AN SSSR
, Moscow
, 1969
.7.
Finkel
, V. M.
, Elesina
, O. P.
, Zarichenko
, V. M.
, and Mizahakova
, E. A.
, “The Effect of Non-metallic Inclusion of the Strength of Steel
,” Met. Sci. Heat Treat.
, Vol. 13
, No. 4
, April 1971
, pp. 293
–297
. https://doi.org/10.1007/BF006613398.
Zhang
, L.
and Thomas
, B. G.
, “Inclusions in Continuous Casting of Steel
,” XXIV National Steelmaking Symposium
, Morelia, Mich, Mexico
, Nov. 2003
, pp. 138
–183
.9.
Belchenko
, G. I.
and Gubenko
, S. I.
, “Deformation of Nonmetallic Inclusion During Steel Rolling
,” Russian Metallurgy
, Vol. 4
, 1983
, pp. 66
–69
.10.
Baker
, T. J.
and Charles
, J. A.
, “Deformation of MnS Inclusions in Steel
,” J Iron Steel Inst.
, Vol. 210
, 1972
, pp. 680
–690
.11.
Gove
, K. B.
and Charles
, J. A.
, “Further Aspects of Inclusion Deformation
,” Metals Technol
, Vol. 1
, 1974
, pp. 425
–431
.12.
Waudby
, P. E.
, “Factor Controlling the Plasticity of Silicate Inclusion
,” Steel Times
, 1972
, pp. 147
–152
.13.
Lund
, T.
and Lkesson
, J.
, “Effect of Steel Manufacturing Process on the Quality of Bearing Steel
,” ASTM STP 987
, I. J. C.
Hoo
, Ed., ASTM International
, West Conshohocken, PA
, 1988
, pp. 308
–312
.14.
Pickering
, F. B.
and Robinson
, S. W.
, “The Plastic Deformation and Fracture of Silicate Inclusions in Steel (Chapter 8)
,” Institution of Metallurgists
, Inclusions Monograph, Vol. 3
, 1979
, pp. 127
–156
.15.
Malkiewicz
, T.
and Rudnik
, S.
, “Deformation of Nonmetallic Inclusions During Rolling of Steel
,” J Iron Steel Inst
, Vol. 201
, 1963
, pp. 33
–38
.16.
Sen
, S.
, Mukhopadhyay
, B.
, and Ray
, S. K.
, “Continuous Casting and Hot Rolling of AISI-310 Stainless
,” Steel India
, Vol. 19
, 1996
, pp. 18
–23
.17.
Luo
, C.
and Ståhlberg
, U.
, “FEM Simulation of Void Formation Close to an Inclusion in a Uniform Matrix During Plastic Deformation
,” Simulation of Materials Processing; Theory, Methods and Applications
, Rotterdam, 1998
, pp. 379
–384
.18.
Saimoto
, A.
and Nistiani
, H.
, “Crack Propagation Simulation in a Plate with Cracks and an Inclusion
,” Trans. Eng. Sci.
, Vol. 19
, 1998
.19.
Harik
, V. M.
and Cairncross
, R. A.
, “Evolution of Interfacial Voids Around a Cylindrical Inclusion
,” J. Appl. Mech.
0021-8936, Vol. 66
, 1999
, pp. 310
–314
. https://doi.org/10.1115/1.279105020.
Gurland
, J.
and Plateau
, J.
, “The Mechanism of Ductile Rupture
,” J. Trans. ASM
, Vol. 56
, p. 42.21.
Argon
, A. S.
, JM
, J.
, and Sagoflu
, R.
, “Cavity Formation from Inclusions in Ductile Fracture
,” Metall. Trans.
0026-086X, Vol. 6A
, 1975
, p. 825.22.
Thomson
, R. D.
and Hancock
, J. W.
, “Stress and Strain Fields Around Inclusions in a Plastically Deforming Matrix
,” Proceedings, ICM4
, Stockholm, Sweden
, Vol. II
, 1983
, p. 723.23.
Gilormini
, P.
and Germain
, Y.
, “A Finite Element Analysis of the Inclusion Problem for Power Law Viscous Materials
,” Int. J. Solids Struct.
0020-7683, Vol. 23
, 1987
, pp. 413
–437
. https://doi.org/10.1016/0020-7683(87)90045-X24.
Nagayama
, N.
, Abe
, T.
, and Nagaki
, S.
, “Plastic Deformation of Inhomogeneous Materials with Elliptic Inclusions
,” Comput. Mech.
0178-7675, Vol. 4
, pp. 433
–441
. https://doi.org/10.1007/BF0029304925.
Pietzyk
, M.
, Kusiak
, J.
, Kusiak
, K.
, and Grosman
, F.
, “Fields of Strain Around the Inclusion of Second Phase in a Uniform Matrix Undergoing Plastic Deformation
,” Steel Res.
0177-4832, Vol. 62
, 1991
, pp. 507
–511
.26.
Werlefors
, T.
and Ekelund
, S.
, “Automatic Multiparameter Characterization of Non-Metallic Inclusions—An Evaluation of the Particle Analyzing Scanning Electron Microscope (PASEM)
,” Scand. J. Metall.
0371-0459, Vol. 7
, 1978
, pp. 60
–70
.27.
Gladman
, T.
, Clean Steel 3
, Balatonfured
, Hungary
, 1986
, pp. 50
–59
.28.
Johansson
, S.
, Scand. J. Metall.
0371-0459, Vol. 19
, 1990
, pp. 79
–81
.29.
Spizig
, W. A.
, Sober
, R. J.
, and Panseri
, N. J.
, Metallography
0026-0800, Vol. 16
, 1983
, pp. 171
–198
. https://doi.org/10.1016/0026-0800(83)90004-630.
Luo
, C.
and Ståhlberg
, U.
, “An Alternative Way for Evaluating the Deformation of MnS Inclusions in Hot Rolling of Steel
,” Scand. J. Metall.
0371-0459, Vol. 31
, 2002
, pp. 184
–190
. https://doi.org/10.1034/j.1600-0692.2002.310304.x31.
Becker
, R.
, Smelser
, R. E.
, and Richmond
, O.
, “The Effect of Void Shape on the Development of Damage and Fracture in Plane-Strain Tension
,” J. Mech. Phys. Solids
0022-5096, Vol. 37
, No. 1
, 1989
, pp. 111
–129
. https://doi.org/10.1016/0022-5096(87)90007-X32.
Ivanova
, V. S.
, Fatigue Failure of Metals
, in Russian, Moscow, 1963
.33.
Rudnik
, S.
, “Discontinuities in Hot-Rollers Steel Caused by Nonmetallic Inclusions
,” Steel Res.
0177-4832, Vol. 204
, 1966
, pp. 374
–376
.34.
Banks
, T. M.
and Gladman
, T.
, “Sulphide Shape Control
,” Metal Technol
, Vol. 6
, 1979
, pp. 81
–94
.35.
Gove
, K. B.
and Charles
, J. A.
, “Further Aspects of Inclusion Deformation
,” Metals Technology
, Vol. 1
, 1974
, pp. 425
–431
.36.
Garcia
, C. I.
, Pytel
, S.
, and Deardo
, A. J.
, “The Effect of Noninclusions on the Hot Ductility of Continuously Cast Low-Alloy Steel
,” ECF6 Fract. Control of Eng.
, Vol. 3
, 1986
, pp. 1811
–1823
.37.
Baker
, T. J.
and Charles
, J. A.
, Effect of Second Phase Particles on the Mechanical Properties of Steel
, M. J.
Mau
, Ed., The Iron and Steel Institute
, London
, 1971
, pp. 88
–94
.38.
Allazadeh
, M. R.
, Garcia
, C. I.
, Alderson
, K. J.
, and DeArdo
, A. J.
, “Using NDT Image Processing Analysis to Study the Soundness and Cleanliness of Accelerated Cooled Continuously Cast Steel Slabs
,” Materials Science & Technology 2008 Conference
, Pittsburgh, PA
.39.
Incropera
, F. P.
and DeWitt
, D. P.
, Fundamentals of Heat and Mass Transfer
, 6th ed., Wiley and Sons
, Hoboken, N.J.
, 2006
.40.
Loyau
, V.
, Feuillard
, G.
, and Tran-Huu-Hue
, L. P.
, “Modeling of the Temperature Increase in Ultrasonic Transducers
,” 2004 IEEE International Ultrasonics, Ferroelectrics, and Frequency Control Joint 50th Anniversary Conference
.41.
Baker
, T. J.
and Charles
, J. A.
, “Type II Manganese Sulphides: Their Deformation and Effect on Steel Fracture
,” J Iron Steel Inst
, Vol. 211
, 1973
, pp. 187
–192
.
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