The Peculiarities of Mass Transfer in the Surface Layer of Materials under Extreme Heating

Abstract:

Possible causes of mass transfer acceleration of carbon atoms and alloying elements in the surface layers of steels and alloys under extreme heating, under pulsing laser irradiation in particular, are considered. The research shows that the anomaly accelerated mass transfer, including diffusion in particular, in steels and alloys under fast laser heating has a cooperative character and is a result of a simultaneous action of several processes of different physics. It is proved that the carbon atoms mass transfer parameters and alloying elements depend on the scale and the level of emerging tension, relaxation of which goes along with a local plastic deformation, and occurrence of increased number of linear defects in crystal structure.

• Periodical: Materials Science Forum (Volume 1037)
• Pages: 449-456
• DOI: https://doi.org/10.4028/www.scientific.net/MSF.1037.449
• Online since: July 2021
• Authors: Andrey V. Brover*, Galina I. Brover, Olga B. Moysova, Valeriya E. Yankovskaya
• Keywords: Laser Irradiation, Local Plastic Deformation, Mass Transfer, Microheterogeneity, Properties, Steels, Structure

References

[1] Mazanko V.F., Pokoev A.V., Mironov V.M. Diffusive processes in metals under the action of magnetic fields and pulsed deformations: in two volumes. M: Mashinostroenie, 2006. 320 p.

[2] Krishtal M.A., Zakharov N.N., Kokora A. N. On the contribution of diffusion processes to the redistribution of matter in a solid under the influence of laser radiation, Physics and chemistry of materials processing, №4 (1976) 25-28.

[3] Kraposhin V.S. Relationship between microstructure features and heat and mass transfer characteristics in iron of technical purity during laser heating, Physics and chemistry of materials processing, №.1 (1989) 32-37.

[4] Zakharov S.M., Larikov L.N., Mezhevinsky R.L. Influence of the driving force created by external influence on mass transfer in a solid, Metallophysics and the latest technologies, Vol.171. №.1 (1995) 30-35.

[5] Sementsev A.M. Features of structure formation in low alloy steels during laser treatment, Automation and modern technologies, №.7 (2006)16-18.

[6] Gurevich M.E., Larikov L.N., Mazanko V.F. Influence of laser radiation on the mobility of iron atoms, Physics and chemistry of materials processing, №2 (1977) P.7-9.

[7] Bokshtein B.S. Diffusion in metals M: Metallurgija, 1978. 248 p.

[8] Krishtal M.A., Filyaev V.I. Diffusion of impurity atoms in the region of dislocations in metals, Physics and chemistry of materials processing, №1 (1979)115-126.

[9] Manning J. Kinetics of atom diffusion in crystals. M: Mir, 1971. 277 p.

[10] Lyubov B.Ya. Diffusion processes in inhomogeneous solid media. M: Nauka, 1981. 296 p.

[11] Epshtein G.N., Kaibyshev O.A. High-speed deformation and structure of metals. M: Metallurgija, 1971. 95 p.

[12] Parkin A.A., Zhatkin S.S. Features of heating and mass transfer processes in a material under pulsed laser action, Physics and chemistry of materials processing, №8 (1994) 27-35.

[13] Gurevich M.E., Larikov L.N., Mazanko V.F. Influence of laser radiation on the mobility of iron atoms, Physics and chemistry of materials processing, №.2 (1977) P.7-9.

[14] Gurevich M.E., Zhuravlev A.F., Larikov L.N. Investigation of directed atomic transfer in metals under the influence of pulsed OQG radiation, Metallophysics, Vol.3.- №3 (1981) 108-112.

[15] Sazonov B.G. Extreme diffusion activity in steel in the pre-transformation state, Metal science and heat treatment of metals, №7 (1990) 63-71.

[16] Mirkin L.I. Contact melting at the ferrite-graphite interface under the action of laser light pulses, Physics and chemistry of materials processing, №1 (1973)143-145.

[17] Dobrovol'skii I.P., Kartashkin B.A., Polyakov A.P. On the nature and mechanism of contact melting, Physics and chemistry of materials processing, №2 (1972) 36-38.

[18] Jiechao Cui, Min Li, Baoqin Fu, Qing Hou Migration behaviors of helium atoms near tungsten surfaces: A molecular dynamics study, Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, Vol.455.- №15 (2019)1-6.

DOI: 10.1016/j.nimb.2019.06.015

[19] Sanchez J., Ridruejo A., de Andres P.L. Diffusion and trapping of hydrogen in carbon steel at different temperatures, Theoretical and applied fracture mechanics, Vol.110 (2020)№102803.

DOI: 10.1016/j.tafmec.2020.102803

[20] Liu X., Xu M., Han Y., Meng Cg. Adsorption, diffusion and aggregation of Ir atoms on graphdiyne: a first-principles investigation, Physical chemistry chemical physics, Vol.22.- №44 (2020) 25841-25847.

DOI: 10.1039/d0cp05197g

[21] Gunen A., Kalkandelen M., Gok M.S., Kanca E., Kurt B., Karakas M.S., Karahan I.H., Cetin M. Characteristics and high temperature wear behavior of chrome vanadium carbide composite coatings produced by thermo-reactive diffusion, Surface & Coatings technology, Vol.402 (2020) №126402.

DOI: 10.1016/j.surfcoat.2020.126402

[22] Danilchenko V.E., Filatov A.V., Mazanko V.F., Yakovlev V.E. Cyclic Martensitic transformations influence on the diffusion of carbon atoms in Fe-18 wt.% Mn-2 wt.% Si alloy, Nanoscale research letters, Vol.12.- №194 (2017).

DOI: 10.1186/s11671-017-1978-z