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Uspekhi Fizicheskikh Nauk, 2020, Volume 190, Number 7, Pages 732–748
DOI: https://doi.org/10.3367/UFNr.2019.07.038611 (Mi ufn6539) 		 
This article is cited in 12 scientific papers (total in 12 papers)

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Structure and dynamics of concentrated mesoscale vortices in planetary atmospheres

O. G. Onishchenkoab, O. A. Pokhotelova, N. M. Astaf'evab, W. Hortonc, V. N. Fedund

a Schmidt Institute of Physics of the Earth, Russian Academy of Scienses, Moscow
b Space Research Institute, Russian Academy of Sciences, Moscow
c Applied Research Laboratory at the University of Texas, Austin
d Department of Automatic Control and Systems Engineering, University of Sheffield
Full-text PDF (1144 kB) Citations (12)
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DOI: https://doi.org/10.3367/UFNr.2019.07.038611
Abstract: Concentrated vortices are spatially localized structures with nonzero vorticity surrounded by a potential flow. These structures include a broad class of mesoscale vortices, such as dust devils, water vortices, and fire vortices, as well as larger-scale and more intense tornados. From a rather broad class of concentrated mesoscale vortices, dust devils are selected as the simplest and most easily observable structures owing to dust particles that play the role of tracers. The aim of this review is to present the main results of studies of dust devils in the atmospheres of Earth and Mars. In the framework of ideal fluid dynamics, a recently proposed model is discussed that allows describing vortex structures that are fully localized in space. The results of numerical modeling of vortex dynamics and an analytic model of vortex generation in a convectively unstable atmosphere are briefly discussed.
Funding agency Grant number
Russian Foundation for Basic Research 18-29-21021 мк
Ministry of Science and Higher Education of the Russian Federation
Russian Academy of Sciences - Federal Agency for Scientific Organizations
The work was carried out in the framework of a state assignment to the Shmidt Institute of Physics of the Earth, Russian Academy of Sciences, a project of the Ministry of Education and Science of the RF, and a grant from the Russian Foundation for Basic Research, 18-29-21021mk.
Received: April 19, 2019
Revised: July 4, 2019
Accepted: July 11, 2019
English version:
Physics–Uspekhi, 2020, Volume 63, Issue 7, Pages 683–697
DOI: https://doi.org/10.3367/UFNe.2019.07.038611
Bibliographic databases:
Document Type: Article
PACS: 92.10.ak, 92.60.Fm, 92.60.hk
Language: Russian
Citation: O. G. Onishchenko, O. A. Pokhotelov, N. M. Astaf'eva, W. Horton, V. N. Fedun, “Structure and dynamics of concentrated mesoscale vortices in planetary atmospheres”, UFN, 190:7 (2020), 732–748; Phys. Usp., 63:7 (2020), 683–697
Citation in format AMSBIB
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    • This publication is cited in the following 12 articles:
    1. O. G. Onishchenko, S. N. Artekha, N. S. Artekha, “A model of generation of a jet in stratified nonequilibrium plasma”, Indian J. Phys., 98 (2024), 2549–2558  crossref
    2. Lifang Li, Cunru Zhang, Yi Huang, Zin Min Khant, Pengzhen Guo, Congbin Chen, “Novel design of multi-point injection system for laboratory simulation of Martian low-pressure dust devils”, Acta Astronautica, 222 (2024), 522  crossref
    3. S. N. Artekha, “An analytical model of tornado generation”, Physics of Fluids, 36:8 (2024)  crossref
    4. M. A. Yudenkova, D. A. Klimachkov, A. S. Petrosyan, “Large-Scale Hydrodynamic Flows in Media with Variable Thermodynamic Characteristics”, Plasma Phys. Rep., 50:6 (2024), 724  crossref
    5. M. V. Kurgansky, “Symmetric stability of vertical baroclinic vortices with a warm core”, Izv. Atmos. Ocean. Phys., 59:3 (2023), 211  crossref  crossref
    6. O. G. Onischenko, F. Z. Feigin, “Gidrodinamicheskaya model zamagnichennogo struinogo techeniya v magnitosfere”, Geomagnetizm i aeronomiya, 63:1 (2023), 28  crossref
    7. M. A. Fedotova, D. A. Klimchakov, A. S. Petrosyan, “Wave processes in plasma astrophysics”, Plasma Phys. Rep., 49:3 (2023), 303  crossref
    8. O. G. Onishchenko, S. N. Artekha, F. Z. Feygin, N. M. Astafieva, “Generation model of a spatially limited vortex in a stratified unstable atmosphere”, Geomagn. Aeron., 63:4 (2023), 464  crossref  crossref
    9. O. G. Onishchenko, F. Z. Feygin, “A hydrodynamic model of a magnetized jet flow in the magnetosphere”, Geomagn. Aeron., 62:S1 (2022), S25  crossref
    10. J. P. Pabari, T. Sana, “Dependence of Martian Schumann resonance on the shape of dust devil and its implications”, Curr. Sci., 121:6 (2021), 769–774  crossref  isi
    11. O. Onishchenko, V. Fedun, I. Ballai, A. Kryshtal, G. Verth, “Generation of localised vertical streams in unstable stratified atmosphere”, Fluids, 6:12 (2021), 454  crossref  isi
    12. O. Onishchenko, V. Fedun, W. Horton, O. Pokhotelov, N. Astafieva, S. J. Skirvin, G. Verth, “The stationary concentrated vortex model”, Climate, 9:3 (2021), 39  crossref  isi
    Citing articles in Google Scholar: Russian citations, English citations
    Related articles in Google Scholar: Russian articles, English articles
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