Structure of Argon Solid Phases Formed from the Liquid State at Different Isobaric Cooling Rates
Source abstract
Abstract
By the method of molecular dynamics, computer simulation of the processes of isobaric cooling of argon particle systems under initial conditions with a temperature of 150 K at pressure values from 0.1 to 4 MPa to a temperature of 40 K with cooling rates of 108, 109, 1010, 1011 and 1012 K/s was performed. As a result of a computer experiment, coordinate arrays of particles were obtained, which were subjected to the procedure of three-dimensional Voronoi partitioning to identify and calculate the number of elementary cells of the crystal structure. Analysis of the structure of argon solid phases formed during isobaric cooling allowed us to deduce an estimated pattern between the concentration of FCC (face-centered cubic) cells in solid argon and the cooling rate from the liquid state. The evaluation of the orientation of the axes of translation of crystal cells in the array of particle coordinates made it possible to classify the solid phases formed as a result of cooling as single crystals, glassy media with the inclusion of clusters and single cells of FCC structures. It was revealed that during isobaric cooling at a rate not exceeding 108 K/s, argon completely crystallizes, at isobaric cooling rates of 109–1010 K/s, the union of elementary cells of the crystal structure into clusters is observed in glassy argon, and at rates of 1011 K/s and higher at pressures of 1 MPa and lower, solid vitreous phases of argon are formed in which no crystal structure cells are detected.
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Research context
OpenAlex topics: Material Dynamics and Properties · Thermodynamic and Structural Properties of Metals and Alloys · nanoparticles nucleation surface interactions
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Affiliations
Institute of Mathematics, Physics and Computer Science, Banzarov Buryat State University, Smolina Str., 24a, 670000 Ulan-Ude, Russia
Department of Radiochemistry, Lomonosov Moscow State University, 119991 Moscow, Russia
Institute of Physical Materials Science, Siberian Branch of the Russian Academy of Sciences, 670047 Ulan-Ude, Russia
References (41)
Show source-provided references
1. Frenkel, D., and Smit, B. (2001). Understanding Molecular Simulation, Academic Press.10.1016/B978-012267351-1/50005-5 ↗
2. Rapaport, D.C. (2005). The Art of Molecular Dynamics Simulations, Cambridge University Press.
3. Molecular dynamics with stable coupling to an external bath10.1063/1.448118 ↗
4. Glass-transition behavior of Ni: Calculation, prediction and experiment10.1063/1.3042240 ↗
5. Analysis of semi-empirical interatomic potentials appropriate for simulation of crystalline and liquid Al and Cu10.1080/14786430802206482 ↗
6. Molecular dynamics simulations investigating consecutive nucleation, solidification and grain growth in a twelve-million-atom Fe-system10.1016/j.jcrysgro.2016.11.120 ↗
7. Tournier, R.F., and Ojovan, M.I. (2021). Prediction of Second Melting Temperatures Already Observed in Pure Elements by Molecular Dynamics Simulations. Materials, 14.10.3390/ma14216509 ↗
8. Tournier, R.F. (2022). Multiple glass transitions in bismuth and tin beyond melting temperatures. Metals, 12.10.3390/met12122085 ↗
9. Ojovan, M.I., and Louzguine-Luzgin, D.V. (2022). On Structural Rearrangements during the Vitrification of Molten Copper. Materials, 15.10.3390/ma15041313 ↗
10. Tournier, R.F., and Ojovan, M.I. (2023). NiTi2, a New Liquid Glass. Materials, 16.10.3390/ma16206681 ↗
11. (2023, November 27). NanoSym2020 Computer Program. Available online: https://www1.fips.ru/ofpstorage/Doc/PrEVM/RUNWPR/000/002/020/615/391/2020615391-00001/DOCUMENT.PDF.
12. Computer “Experiments” on Classical Fluids10.1103/PhysRev.159.98 ↗
13. On the Determination of Molecular Fields. I. From the Variation of the Viscosity of a Gas with Temperature
14. Critical-point of the Lennard-Jones fluid: A finite-size scaling study10.1063/1.477099 ↗
15. Interaction Potentials and Glass Formation: A Survey of Computer Experiments10.1002/9780470142684.ch5 ↗
16. Isothermal–isobaric computer simulations of melting and crystallization of a Lennard-Jones system10.1063/1.450427 ↗
17. Cooling Rate Dependence and Dynamic Heterogeneity below the Glass Transition in a Lennard-Jones Glass10.1142/S0129183199001224 ↗
18. Monte-Carlo and Molecular Dynamics Simulations of the Glass Transition of Polymers10.1088/0953-8984/11/10A/003 ↗
19. (2023, December 22). Thermophysical Properties of Fluid Systems, Available online: https://webbook.nist.gov/chemistry/fluid/.
20. Density and Expansivity of Solid Argon10.1038/178483a0 ↗
21. Refractive index of solid krypton and solid argon10.1080/14786436108243350 ↗
22. Ashcroft, N.W., and Mermin, N.D. (1976). Solid State Physics, Saunders College Publishing.
23. Nouvelles applications des paramètres continus à la théorie des formes quadratiques. Deuxième mémoire. Recherches sur les parallélloèdres primitifs10.1515/crll.1908.134.198 ↗
24. Distinguishing liquids from amorphous solids: Percolation analysis on the Voronoi network10.1063/1.459711 ↗
25. Rare gas solids10.1088/0031-9112/28/3/048 ↗
26. Bulletin de l’Academie des Sciences de l’URSS
27. (2023, November 27). Voronoi Diagram—MATLAB Voronoi. Available online: https://www.mathworks.com/help/matlab/ref/voronoi.html.
28. Condition of Glass Transition in Liquids and Lindemann’s Criterion of Melting in the Excited Atom Model10.1023/A:1023922511485 ↗
29. Glass transition criterion and plastic deformation of glass10.1016/j.physb.2019.411914 ↗
30. Rapid quenching from the melt: An annotated bibliography 1958–7210.1007/BF00561226 ↗
31. Forming of metallic glasses: Mechanisms and processes10.1016/j.mtadv.2020.100077 ↗
32. Richet, P., Conradt, R., Takada, A., and Dyon, J. (2021). Encyclopedia of Glass Science, Technology, History, and Culture, Wiley.10.1002/9781118801017 ↗
33. Louzguine-Luzgin, D.V. (2022). Structural Changes in Metallic Glass-Forming Liquids on Cooling and Subsequent Vitrification in Relationship with Their Properties. Materials, 15.10.3390/ma15207285 ↗
34. American Society for Reproductive Medicine (2021). A review of best practices of rapid-cooling vitrification for oocytes and embryos: A committee opinion. Fertil. Steril., 115, 305–310.10.1016/j.fertnstert.2020.11.017 ↗
35. Lawley, A. (1983). Rapid Solidification Technology: Source Book, American Society for Metals.
36. Fundamentals of Rapid Solidification
37. Fe-B glasses formed by picosecond pulsed laser quenching10.1063/1.93647 ↗
38. Metastable states of alloys10.1016/B978-044489875-3/50024-7 ↗
39. Martin, J.W., Cantoor, B., and Doherty, R.D. (1996). Stability of Microstructure in Metallic Systems, Cambridge University Press. [2nd ed.].10.1017/CBO9780511623134 ↗
40. Recognition of the Crystal Structure Clusters in Fast-Cooled Amorphous Medium10.4028/www.scientific.net/SSP.310.140 ↗
41. Revealing structural changes at glass transition via radial distribution functions10.1021/acs.jpcb.0c00214 ↗