Formation of a Multilevel Hierarchical Mesosubstructure by Cross Rolling and Its Influence on the Mechanical Behavior of Austenitic Steel
Source abstract
Abstract
A multilevel hierarchical mesosubstructure is experimentally shown to form in metastable austenitic steel subjected to multipass cross rolling in the temperature range 950-75№C. A multilayer mesosubstructure with highly refined grains, changed grain geometry and microhardness builds up between the macro- and microlevels. Its outer layer has a finely dispersed structure and the highest microhardness H μ = 3400 MPa. The two underlying layers are composed of globular grains 0.9 μm in diameter and exhibit the respective close microhardnesses 3100 and 3000 MPa. The near-axial layer has elongated grains of a fiber-band structure with nanosized width. Between the micro- and nanolevels, a nanosized hierarchical mesosubstructure is formed in all band structures, with the mesosubstructure of nanosized carbides and cardonitrides precipitated at low-angle boundaries. Despite a certain decrease in the steel plasticity in uniaxial tension, such a multilevel mesosubstructure causes a multiple increase in its fatigue life. The formation of hierarchical mesosubstructures is associated with the mechanism of plastic distortion under the conditions of the crystal lattice curvature, when bifurcational structural states arise in its interstices. Multilevel hierarchical mesosubstructures have a strong positive effect on the mechanical behavior of solids, by increasing their strength, wear resistance, and fatigue life.
Source: openalex_inverted_index · Quality: baseline
Research context
OpenAlex topics: Electromagnetic Effects on Materials · Material Properties and Failure Mechanisms · Microstructure and mechanical properties
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (37)
Show source-provided references
1. Panin, V.E., Egorushkin, V.E., Surikova, N.S., and Pochivalov, Yu.I., Shear Bands as Translation–Rotation Mode of Plastic Deformation in Solids under Alternate Bending, Mater. Sci. Eng. A, 2017, vol. 703, pp. 451–460.10.1016/j.msea.2017.07.063 ↗
2. Panin, V.E., Egorushkin, V.E., Elsukova, T.F., Surikova, N.S., Pochivalov, Y.I., and Panin, A.V., Multiscale Translation–Rotation Plastic Flow in Polycrystals, Handbook of Mechanics of Materials, Hsuch, C.–H., et al., Eds., Singapore: Springer Nature, 2017. doi 10.1007/978–981–10–6855–3_77–1
3. Egorushkin, V.E. and Panin, V.E., Physical Foundations of Nonlinear Fracture Mechanics, Mech. Solids, 2013, vol. 48, no. 5, pp. 525–536.10.3103/S0025654413050087 ↗
4. Naimark, O.B., Bayandin, Yu.V., and Zocher, M.A., Collective Properties of Defects, Multiscale Plasticity, and Shock Induced Phenomena in Solids, Phys. Mesomech., 2017, vol. 20, no. 1, pp. 10–30. doi 10.1134/S1029959917 010027
5. Froustey, C., Naimark, O.B., Panteleev, I.A., Bilalov, D.A., Petrova, A.N., and Lyapunova, E.A., Multiscale Structural Relaxation and Adiabatic Shear Failure Mechanisms, Phys. Mesomech., 2017, vol. 20, no. 1, pp. 31–42. doi 10.1134/S102995991701003910.1134/S1029959917010039 ↗
6. Guzev, M.A. and Dmitriev, A.A., Bifurcational Behavior of Potential Energy in a Particle System, Phys. Mesomech., 2013, vol. 16, no. 4, pp. 287–293. doi 10.1134/S102995991304002410.1134/S1029959913040024 ↗
7. Moiseenko, D.D., Panin, S.V., Maksimov, P.V., Panin, V.E., Babich, D.S., and Berto, F., Computer Simulation of Material Behavior at the Notch Tip: Effect of Microrotations on Elastic Release, AIP Conf. Proc., 2016, vol. 1783, pp. 020157. doi 10.1063/1.496645010.1063/1.4966450 ↗
8. Panin, V.E., Egorushkin, V.E., Panin, A.V., and Chernyavsky, A.G., Plastic Distortion as a Fundamental Mechanism in Nonlinear Mesomechanics of Plastic Deformation and Fracture, Phys. Mesomech., 2016, vol. 19, no. 3, pp. 255–268.10.1134/S1029959916030048 ↗
9. Miyazaki, T., Terada, D., Miyajima, Y., Suryanarayana, C., Murao, R., Yokoyama, Y., Sugiyama, K., Umemoto, M., Todaka, Y., and Tsuji, N., Synthesis of Non–equilibrium Phases in Immiscible Metals Mechanically Mixed by High Pressure Torsion, J. Mater. Sci., 2011, vol. 46, pp. 4296–4301.10.1007/s10853-010-5240-7 ↗
10. Perez–Prado, M.T., Gimazov, A.A., Ruano, O.A., Kassner, M.E., and Zhilyaev, A.P., Bulk Nanocrystalline ш–Zr by High Pressure Torsion, Scripta Mater, 2008, vol. 58, pp. 219–222.10.1016/j.scriptamat.2007.09.043 ↗
11. Straumal, B.B., Mazilkin, A.A., Protasova, S.C., Dobatkin, S.V., Rodin, A.O., Baretzky, B., Goll, D., and Schutz, G., Fe–C Nanograined Alloys Obtained by High Pressure Torsion: Structure and Magnetic Properties, Mater. Sci. Eng. A, 2009, vol. 503, pp. 185–189.10.1016/j.msea.2008.03.052 ↗
12. Sauvage, X. and Pippan, R., Nanoscaled Structure of a Cu–Fe Composite Processed by High–Pressure Torsion, Mater. Sci. Eng. A, 2005, vol. 410–411, pp. 345–347.10.1016/j.msea.2005.08.122 ↗
13. Straumal, B.B., Korneva, A., and Zieba, P., Phase Transitions in Metallic Alloys Driven by the High Pressure Torsion, Arch. Civil. Mech. Eng., 2014, vol. 14, pp. 242–249.10.1016/j.acme.2013.07.002 ↗
14. Abbott, D., Davies, P., and Pati A., Quantum Aspects of Life, London: Imperial College Press, 2009.
15. Lund, K., Manzo, A.J., Dabby, N., Michelotti, N., Johnson–Buck, A., Nangreave, J., Taylor, S., Pei, R., Stojanovic, M.N., Walter, N.G., Winfree, E., and Yan, H., Molecular Robots Guided by Prescriptive Landscapes, Nature, 2010, vol. 465, pp. 206–210.10.1038/nature09012 ↗
16. Zhukovskii, M.S., Beznosyuk, S.A., Potekayev, A.I., and Starostenkov, M.D., Theoretical Basis of Computer Nanoengineering of Biometric Nanosystems, Tomsk: Nauch.–Tekhn. Lit., 2011.
17. Conrad, H., Electroplasticity in Metals and Ceramics, Mater. Sci. Eng. A. Struct., 2000, vol. 287, pp. 276–287.10.1016/S0921-5093(00)00786-3 ↗
18. Baranov, Yu.V., Troitskii, O.A., Avraamov, Yu.S., and Shlyapin, A.D., Physical Principles of Electropulse and Electroplastic Treatments and New Materials, Moscow: MSIU Publ. House, 2001.
19. Roh, J.–H., Seo, J.–J., Hong, S.–T., Kim, M.–J., Han, H.N., and Roth, J.T., The Mechanical Behavior of 5052–H32 Aluminum Alloys under a Pulsed Electric Current, Int. J. Plasticity, 2014, vol. 58, pp. 84–99.10.1016/j.ijplas.2014.02.002 ↗
20. Stolyarov, V.V., Influence of Chemical and Phase Composition on the Emergence of the Electroplastic Effect in Titanium Alloys, Bull. Russ. Acad. Sci. Phys., 2014, vol. 78, no. 3, pp. 234–236. doi 10.3103/S106287381403020410.3103/S1062873814030204 ↗
21. Farber, V.M., Khotinov, V.A., Belikov, S.V., Selivanova, O.V., Lezhnin, N.V., Morozova, A.N., Karabanalov, M.S., and Zhilyakov, A.Yu., Separations in Steels Subjected to Controlled Rolling, Followed by Accelerated Cooling, FMM, 2016, vol. 117, no. 4, pp. 407–421. doi 10.1134/S0031918X16040050
22. Filippov, M.A., Litvinov, V.S., and Nemirovskii, Yu.R., Steels with Metastable Austenite, Moscow: Metallurgy, 1988.
23. Svyazhin, A.G. and Kaputkina, L.M., Steels Doped with Nitrogen, Izv. Vuz. Cher. Metallur., 2005, no. 10, pp. 36–46.
24. Ivanov, M.B., Penkin, A.V., Kolobov, Yu.R., Golosov, E.V., Nechaenko, D.A., and Bozhko, S.A., Warm Cross Rolling in Conical Rolls as a Method of Severe Plastic Deformation, Deform. Razr. Mater., 2010, no. 9, pp. 13–18.
25. Nayzabekov, A.B. and Arbuz, A.S., Effect of Cross Rolling on the Microstructure of 40Kh Steel, Vest. KazNTU Tekh. Nauki, 2015, no. 5, pp. 249–255.
26. Ivanov, K.V., Naydenkin, E.V., Lykova, O.N., Ratochka, I.V., Mishin, I.P., and Vinokurov, V.A., Structure Evolution and Mechanical Properties of a Ti–6Al–4V Alloy during Helical Rolling and Subsequent Deformation and Thermal Treatments, Russ. Phys. J., 2017, vol. 60, no. 7, pp.1226–1232.
27. Rybin, V.V., Large Plastic Deformation and Fracture of Metals, Moscow: Metallurgy, 1986.
28. Panin, V.E., Overview on Mesomechanics of Plastic Deformation and Fracture of Solids, Theor. Appl. Fract. Mech., 1998, vol. 30, no. 1, pp. 1–11.10.1016/S0167-8442(98)00038-X ↗
29. Kaibyshev, O.A., Scientific Foundations, Achievements, and Prospects of Superplastic Deformation, Ufa: Gilem, 2000.
30. Egorushkin, V.E. and Panin, V.E., Scale Invariance of Plastic Deformation of the Planar and Crystal Subsystems of Solids under Superplastic Conditions, Phys. Mesomech., 2017, vol. 20, no. 1, pp. 1–9.10.1134/S1029959917010015 ↗
31. Lotkov, A.I., Baturin, A.A., Grishkov, V.N., and Kopylov, V.I., Possible Role of Crystal Structure in the Structure of Nanofragmentation under Severe Cold Plastic Deformation of Metals and Alloys, Phys. Mesomech., 2007, vol. 10, no. 3–4, pp. 179–189.10.1016/j.physme.2007.08.007 ↗
32. Panin, V.E., Panin, A.V., Elsukova, T.F., and Popkova, Yu.F., Fundamental Role of Curvature of the Crystal Structure in Plasticity and Strength of Solids, Phys. Mesomech., 2015, vol. 18, no. 2, pp. 89–99.10.1134/S1029959915020010 ↗
33. Panin, V.E. and Egorushkin, V.E., Physical Foundations of Crystal Structure Refinement under Severe Plastic Deformation, J. Phys. Conf. Ser., 2010, vol. 240, pp. 012121–1–012121–4.10.1088/1742-6596/240/1/012121 ↗
34. Derevyagina, L.S., Gordienko, A.I., Pochivalov, Yu.I., and Smirnova, A.S., Modification of the Structure of Low–Carbon Pipe Steel by Helical Rolling, and the Increase in Its Strength and Cold Resistance, Phys. Met. Metall., 2018, vol. 119, no. 1, pp. 83–91.10.1134/S0031918X18010076 ↗
35. Tekoglu, C., Hutchinson, J.W., and Pardoen, T., On Localization and Void Coalescence as a Precursor to Ductile Fracture, Philos. Trans. R. Soc. A, 2015, vol. 373, p. 20140121.10.1098/rsta.2014.0121 ↗
36. Panin, V.E., Grinyaev, Yu.V., Panin, A.V., and Panin, S.V., Multiscale Wave Model of a Deformed Solid in Physical Mesomechanics, in Proc. VIInt. Conf. Mesomechanics, Sih, G.C., Kermanidis, Th.B., and Pantelakis, Sp.G., Eds., Patras, Greece: Typocenter, 2004.
37. Derevyagina, L.S., Panin, V.E., and Gordienko, A.I., Self–Organization of Plastic Shears in Localized Deformation, Macrobands in the Neck of High–Strength Polycrystals, Its Role in Material Fracture under Uniaxial Tension, Phys. Mesomech., 2008, vol. 11, no. 1–2, pp. 51–62.