A brief review of research on the intensification of heat transfer during boiling using modification of the heating surface, dedicated to the 90th anniversary of the birth of Vladimir Mikhailovich Zhukov


Аuthors

Kuzma-Kichta Y. A.1*, Lenkov V. A.2, Vasil’ev N. V.2**

1. National Research University “Moscow Power Engineering Institute”, 14, Krasnokazarmennaya str., Moscow, 111250 Russia
2. Joint Institute for High Temperatures of the Russian Academy of Sciences, 13, Izhorskaya str., Moscow, 125412, Russia

*e-mail: kuzma@itf.mpei.ac.ru
**e-mail: nikvikvas@mail.ru

Abstract

The article is dedicated to the memory (90th anniversary of birth) of the outstanding scientist-thermophysicist, laureate of the USSR State Prize, candidate of technical sciences, senior researcher Vladimir Mikhailovich Zhukov, who for 20 years was the deputy head of the heat transfer department of the JIHT RAS. Vladimir Mikhailovich Zhukov made a significant contribution to the study of heat transfer during phase transformations of various coolants from liquid metal to cryogenic. This article presents the results of research in the last period of his activity, devoted to the study of the effect of surface modification on the intensification of heat transfer during boiling of various liquids (nitrogen, water, freon R113). The presented results were obtained on surfaces modified by applying dimples, coatings of nanoparticles obtained by boiling a nanofluid and created by the microarc oxidation (MAO) method. The studies were conducted with non-stationary cooling of solid spheres and cylinders in the range of temperature differences covering bubble, transitional and film boiling modes at atmospheric pressure under free convection conditions. It was shown that the application of micro- and nanoporous coatings of the types under consideration leads to a significant reduction in the cooling time of spheres heated above the Leidenfrost temperature, an increase in the heat transfer coefficients, the second critical heat flux density and the corresponding temperature difference during the boiling of nitrogen, water and freon R113. During his long and fruitful scientific life, V.M. Zhukov studied the boiling of a wide range of liquids - sodium, helium, nitrogen, various freons, water on surfaces with relief on the macro-, micro- and nanoscales under conditions of free and forced convection, as well as the boiling of cryogenic liquids in the field of action of centrifugal forces. He managed to discover and explain the features of unstable boiling of liquid metal and these unique results were reflected in many domestic and foreign monographs. Overcoming multiple experimental difficulties tempered V.M. Zhukov and allowed him to develop a strong and purposeful character. Colleagues noted his outstanding pedagogical abilities, intolerance to manifestations of lack of will in assistants. His scientific supervisor was the head of the heat exchange department of the Institute of Heat Transfer of the USSR Academy of Sciences, Corresponding Member of the USSR Academy of Sciences Petukhov B.S., and his closest associate was an outstanding specialist in the field of heat exchange during boiling, professor, Doctor of Technical Sciences Sergei Alekseevich Kovalev. As a feature of V.M. As a researcher, it should be noted that in his works Zhukov paid special attention to the novelty of the method of heat exchange intensification, its potential practical application and the reliability of the results obtained.

Keywords:

boiling, non-stationary cooling, heat transfer enhancement, surface modification, microarc oxidation, nanofluid

References

  1. Kuzma-Kichta YuA. Study of heat removal intensification and development of recommendations for calculating thermal-hydraulic characteristics in pre-crisis and post-crisis areas of steam-generating channels. PhD. thesis. Moscow: MEI; 1989. (In Russ.).

  2. Dedov AV. A Review of Modern Methods for Enhancing Nucleate Boiling Heat Transfer. Thermal Engineering. 2019;66(12):881–915.

  3. Liang G, Mudawar I. Review of pool boiling enhancement by surface modification. Int. J. Heat Mass Transfer. 2019;128:892–933.

  4. Volodin OA, Pecherkin NI, Pavlenko AN. Heat Transfer Enhancement at Boiling and Evaporation of Liquids on Modified Surfaces—A Review. High Temperature. 2021; 59(2):405–432.

  5. Wang XS, Wang ZB, Chen QZ. Research on manufacturing technology and heat transfer characteristics of sintered porous surface tubes. Adv. Mater. Res. 2010; 97‒101:1161–1165.

  6. Jun S, Wi H, Gurung A. Pool boiling heat transfer enhancement of water using brazed copper microporous coatings. Journal of Heat Transfer. 2016;138(7). DOI: 10.1115/1.4032988

  7. Kiknadze GI, Krasnov YuK, Podymaka NF. Self-orga-nization of vortex structures during water flow around a hemispherical hole. Reports of the Academy of Sciences. 1986;291(6):1315–1318. (In Russ.).

  8. Shchukin AV, Kozlov AP, Agachev RS. Intensification of heat exchange by spherical recesses under the influence of disturbing factors. Kazan: KSTU, 2003. 142 p. (In Russ).

  9. Dzyubenko BV, Kuzma-Kichta YuA, Leontyev AI. Intensification of heat and mass transfer on macro-, micro- and nanoscales. Moscow: FSUE "TsNIIATOMINFORM", 2008. 532 p. (In Russ.).

  10. Kiknadze GI, Kryuchkov II, Chushkin YuV. Heat transfer crisis during self-organization of tornado-like vortex structures: Preprint IAE No. 4841/3. Moscow: TsNIIatom-inform, 1989. (In Russ.).

  11. Mostinskii IL, Geshele VD, Goryainov DA. Critical heat flux and heat transfer in the postcrisis region on surfaces with craters. Thermal engineering. 2003;50(10):838–843.

  12. Kim SJ, Bang IC, Buongiorno J. Surface wettability change during pool boiling of nanofluids and its effect on critical heat flux. International Journal of Heat and Mass Transfer. 2007;50(19):4105–4116. DOI: 10.1016/ j.ijheatmasstransfer.2007.02.002

  13. Kim HD, Kim MH. Effect of nanoparticle deposition on capillary wicking that influences the critical heat flux in nanofluids. Applied Physics Letters. 2007;91. DOI: 10.10 63/1.2754644

  14. Vasil’ev NV, Varaksin AYu, Zeigarnik YuA. Characteristics of subcooled water boiling on structured surfaces. High Temperature. 2017;55(6):880–886.

  15. Kuznetsov D, Pavlenko A. Heat transfer during nitrogen boiling on surfaces modified by microarc oxidation. Ener-gies. 2022;15(16). DOI: 10.3390/en15165792

  16. Zhukov VM, Kuzma-Kichta YuA, Lenkov V. Enhancement of heat transfer at transition and film boiling of nitrogen on spheres with dimples and low conductivity coating. 15th International Heat Transfer Conference. (2014. IHTC15-9224).

  17. Zhukov VM, Kuzma-Kichta YuA, Lavrikov AV et al. Heat transfer under transition and film boiling of liquids at dimpled spheres and cylinders. Journal of Physics: Conference Series. 2018;980.

  18. Kuzma-Kichta YuA, Lavrikov AV, Zhukov VM et al. Method for obtaining of nanorelief on surface. Patent RU 2517795 C1, 05.27.2014. (In Russ.).

  19. Kuzma-Kichta YuA, Lavrikov AV, Shustov MV et al. Study of various boiling regimes on a surface with a relief of nanoparticles. The Sixth Russian National Confe-rence on Heat Transfer. (2014). p. 590–593. (In Russ.).

  20. Zhukov VM, Elagina OYu, Kuzma-Kichta YuA et al. Intensification of heat transfer during boiling of liquid nitrogen by applying submicron ceramic coatings on the surfaces of aluminum alloy bodies. Thermal processes in engineering. 2014;6(12):553–559. (In Russ.).

  21. Zhukov VM, Kuzma-Kichta YuA, Lavrikov AV et al. Study of heat transfer during boiling of nitrogen and freon 113 on a sphere with a coating based on Al2O3 obtained by microarc oxidation. Thermal processes in engineering. 2016;8(8):353–361. (In Russ.).

  22. Zhukov VM, Kuzma-Kichta YuA, Lavrikov AV et al. Intensification of heat transfer during boiling of various liquids on spheres with a coating formed by the micro arc oxidation method. Thermal processes in engineering. 2017;9(12):537–543. (In Russ.).

  23. Belov KI, Zhukov VM, Kuzma-Kichta YuA et al. Intensification of heat transfer during boiling of liquids on spheres with ceramic submicron coatings based on Al2O3. The XX School-seminar of young scientists and specia-lists led by Academician of the Russian Academy of Sciences A.I. Leont’ev «Problems of gas dynamics and heat and mass transfer in power plants». 2015:290–293. (In Russ.).

  24. Belov KI, Zhukov VM, Lenkov VA. The use of a ceramic coating obtained on the basis of microarc oxidation (MDO) on the surface of an aluminum alloy cylinder to intensify heat transfer during boiling of freon-R113. The XXI School-seminar of Young Scientists and specialists led by Academician of the Russian Academy of Sciences A.I. Leont’ev «Problems of gas dynamics and heat and mass transfer in power plants». 2017;2:284–287. (In Russ.).

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