Preview

Bulletin of State University of Education. Series: Physics and Mathematics

Advanced search

Optimization of the surface relief to give it superhydrophobic properties

https://doi.org/10.18384/2949-5067-2024-4-6-25

Abstract

Aim. Modeling the properties of hydrophobic and ice-repellent coatings.

Methodology. The methods used are based on the use of known generally accepted laws of mechanics, electrodynamics and thermodynamics. The equations were solved numerically using proprietary computer programs, and the graphs were constructed using known graph plotting programs.

Results. The conditions for superhydrophobicity were formulated. Analytical studies of the features of applying relief to a metal surface using laser ablation were conducted. A method for controlling the spatial period of relief by changing the parameters of the laser system was proposed. Based on published experimental data on laser ablation, the possibility of satisfying the conditions of superhydrophobicity of modified aluminum, titanium and steel surfaces was shown.

Research implications lies in development of methods for modeling hydrophobic and ice-phobic properties, as well as in modeling and optimizing the processes of their creation. The use of such coatings allows for a significant reduction in the intensity of icing of aircraft, the drag of bodies in liquid, and the drag of aircraft in conditions of heavy precipitation.

About the Authors

I. A. Amelyushkin
Moscow Institute of Physics and Technology
Russian Federation

Ivan A. Amelyushkin – Cand. Sci. (Phys.-Math.), Programmer, Laboratory of Information Technologies and Applied Mathematics, Phystech School of Aerospace Technology

Institutskiy pereulok 9, Dolgoprudniy 141701, Moscow region



M. A. Kudrov
Moscow Institute of Physics and Technology
Russian Federation

Maksim A. Kudrov – Cand. Sci. (Engineering), Assoc. Prof., Director of the Advanced Engineering School of Radar, Radionavigation and Software Engineering

Institutskiy pereulok 9, Dolgoprudniy 141701, Moscow region



P. S. Kuleshov
Moscow Institute of Physics and Technology
Russian Federation

Pavel S. Kuleshov – Cand. Sci. (Phys.-Math.), Lecturer of the Department of General Physics

Institutskiy pereulok 9, Dolgoprudniy 141701, Moscow region



References

1. Amelyushkin, I. A., Miller, A. B. & Stasenko, A. L. (2021). Estimation of the roughness period of anti-ice body coatings in air flow with supercooled droplets. In: Bulletin of the Moscow Region State University. Series: Physics-Mathematics, 1, 54–63. DOI: 10.18384/2310-7251-2021-1-54-63 (in Russ.).

2. Amelyushkin, I. A., Kudrov, M. A., Morozov, A. O., Stasenko, A. L. & Shcheglov, A. S. (2020). Models of processes accompanying crystallization of supercooled metastable droplets. In: Proceedings of the Institute for System Programming of the RAS, 32 (4), 235– 244. DOI: 10.15514/ISPRAS-2020-32(4)-17 (in Russ.).

3. Mishchenko L., Hatton, B., Bahadur, V., Taylor, J. A., Krupenkin, T. & Aizenberg, J. (2010). Design of Ice-free Nanostructured Surfaces Based on Repulsion of Impacting Water Droplets. In: ACS Nano, 4 (12), 7699–7707. DOI: 10.1021/nn102557p.

4. Kadzharduzov, P. A. & Ezrokhi, Yu. A. (2019). Influence of ice accretion on turbofan performances in ice crystal conditions. In: Aviation Engines, 1 (2), 75–81. DOI: 10.54349/26586061_2019_1_75 (in Russ.).

5. Goryachev, A. V., Goryachev, P. A., Zhulin, V. G. & Grebenkov, S. A. (2019). Computational and analytical study to confirm effectiveness of an aircraft engine’s protection from effects of rain and hail. In: Aviation Engines, 4 (5), 19–30. DOI: 10.54349/26586061_2019_4_19 (in Russ.).

6. Grinats, E. S, Miller, A. B., Potapov, Y. Ph. & Stasenko, A. L. (2013). Experimental and theoretical investigations of the ordinary and nano modified superhydrophobic surfaces icing processes. In: Bulletin of the Moscow Region State University. Series: Physics-Mathematics, 3, 84–92 (in Russ.).

7. Solovyanchik, L. V., Kondrashov, S. V., Nagornaya, V. S. & Melnikov, A. A. (2018). Feature of receipt anti-icing coating (review). In: Proceedings of VIAM, 6 (66), 77–98. DOI: 10.18577/2307-6046-2018-0-6-77-98 (in Russ.).

8. Kuleshov, P. S. (2019). On the dispersion of aluminum nanoparticles. In: Combustion and explosion, 12 (3), 117–126. DOI: 10.30826/CE19120313 (in Russ.).

9. Kuleshov, P. S. & Kobtsev, V. D. (2020). Distribution of aluminum clusters and their ignition in air during dispersion of aluminum nanoparticles in a shock wave. In: Combustion, Explosion, and Shock Waves, 56 (5), 80–90. DOI: 10.15372/FGV20200508 (in Russ.).

10. Kirichenko, N. A., Barmina, E. V. & Shafeev, G. A. (2018). Theoretical and Experimental Investigation of the Formation of High Spatial Frequency Periodic Structures on Metal Surfaces Irradiated by Ultrashort Laser Pulses. In: Physics of Wave Phenomena, 26 (4), 264– 273. DOI: 10.3103/S1541308X18040027.

11. Ionin, A. A., Kudryashov, S. I., Levchenko, A. O., Makarov, S. V., Saraeva, I. N., Rudenko, A. A., Butsen, A. V. & Burakov, V. S. (2017). Hydrodynamic instability and selforganization of a submicron relief on metal surfaces upon femtosecond laser exposure in liquids. In: Journal of Experimental and Theoretical Physics Letters, 106 (3-4), 247–251. DOI: 10.7868/S0370274X17160123 (in Russ.).

12. Kuleshov, P. S., Kuznetsov, M. M. & Kuleshova, Yu. D. (2022). Dispersion of metal nanofilms during laser scanning. In: Bulletin of the Moscow Region State University. Series: Physics and Mathematics, 1, 41–51. DOI: 10.18384/2310-7251-2022-1-41-51 (in Russ.).

13. Landau, L. D. & Lifshitz, E. M. (1986). Theoretical Physics. Vol. 6. Hydrodynamics. Moscow: Nauka publ. (in Russ.).

14. Novatsky, V. (1975). Theory of elasticity. Moscow: Mir publ. (in Russ.).

15. Amelyushkin, I. A. & Stasenko, A. L. (2018). Interaction of a gas flow carrying nonspherical microparticles with a cross cylinder. In: Journal of Engineering Physics and Thermophysics, 91 (2), 307–318 (in Russ.).

16. Amelyushkin, I. A. & Stasenko, A. L. (2020). Simulation of the interaction of ice crystals with the surface of a flying vehicle. In: Journal of Engineering Physics and Thermophysics, 93 (3), 597–605 (in Russ.).

17. Mikolutsky. S. I. & Khomich, Y. V. (2021). Effect of nanosecond ultraviolet laser radiation on the structure and adhesion properties of metals and alloys. In: Physics of Metals and Metallography, 122 (2), 159–165. DOI: 10.31857/S001532302102008X (in Russ.).

18. Saraeva, I. N., Kudryashov, S. I., Rudenko, A. A., Zhilnikova, M. I., Ivanov, D. S., Zayarny, D. A., Simakin, A. V., Ionin, A. A. & Garcia, M. E. (2019). Effect of fs/ps laser pulsewidth on ablation of metals and silicon in air and liquids, and on their nanoparticle yields. In: Applied Surface Science, 470, 1018–1034. DOI: 10.1016/j.apsusc.2018.11.199.

19. Zhidkov, M. V., Smirnov, N. A., Chen, J., Kudryashov, S. I. & Yapryntsev, M. N. (2020). Structural-phase state of near-surface layers of VT6 titanium alloy after femtosecond laser treatment. In: Letters on Materials, 10 (3), 243–248. DOI: 10.22226/2410-3535-2020-3-243-248.

20. Ohkura, Y., Rao, P. M. & Zheng, X. (2011). Flash ignition of Al nanoparticles: mechanism and applications. In: Combustion and Flame, 158 (12), 2544–2548.

21. Kuleshov, P. S. & Manoshkin, Y. V. (2009). The effect of electric field on the formation and fragmentation of condensate film on the walls of a capillary in a flow of steam. In: High Temperature, 47 (1), 102–110. DOI: 10.1134/S0018151X09010131.


Review

Views: 114


Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 2949-5083 (Print)
ISSN 2949-5067 (Online)