Rossby solitons (Experimental investigations and laboratory model of natural vortices of the Jovian Great Red Spot type)

This review is devoted to a new object in nonlinear physics--Rossby solitons. The following questions are examined in greatest detail: 1) experimental observation of Rossby solitons in the laboratory; the geometric and kinematic properties, stability, collisions, and methods of generation of Rossby solitons; 2) self-organization of a Rossby autosoliton in unstable oppositely directed (zonal) flows; 3) a stationary laboratory model of natural vortices of the Jovian Great Red Spot (JGRS) type based on the Rossby autosoliton; 4) the question of the uniqueness of the JGRS along the perimeter of the planet; and 5) paired Rossby vortices. The theory and experiment are compared. The analogy between Rossby vortices and drift vortices in a plasma is pointed out.

PACS: 52.35.Sb, 52.35.We, 52.35.Kt (all)
DOI: 10.1070/PU1986v029n09ABEH003490
URL: https://ufn.ru/en/articles/1986/9/a/
Citation: Nezlin M V "Rossby solitons (Experimental investigations and laboratory model of natural vortices of the Jovian Great Red Spot type)" Sov. Phys. Usp. 29 807–842 (1986)

BibTexBibNote ® (generic)BibNote ® (RIS)MedlineRefWorks

Оригинал: Незлин М В «Солитоны Россби (Экспериментальные исследования и лабораторная модель природных вихрей типа Большого Красного Пятна Юпитера)» УФН 150 3–60 (1986); DOI: 10.3367/UFNr.0150.198609a.0003

Cited by (63) Similar articles (20) ↓

A.S. Monin, G.M. Zhikharev “Ocean eddies” 33 (5) 313–339 (1990)
K.V. Koshel, S.V. Prants “Chaotic advection in the ocean” 49 1151–1178 (2006)
F.V. Dolzhanskii, V.A. Krymov, D.Yu. Manin “Stability and vortex structures of quasi-two-dimensional shear flows” 33 (7) 495–520 (1990)
S.D. Danilov, D. Gurarie “Quasi-two-dimensional turbulence” 43 863–900 (2000)
Yu.A. Stepanyants, A.L. Fabrikant “Propagation of waves in hydrodynamic shear flows” 32 783–805 (1989)
B.S. Kerner, V.V. Osipov “Autosolitons” 32 101–138 (1989)
T.I. Belova, A.E. Kudryavtsev “Solitons and their interactions in classical field theory” 40 359–386 (1997)
V.E. Zakharov, E.A. Kuznetsov “Solitons and collapses: two evolution scenarios of nonlinear wave systems” 55 535–556 (2012)
M.V. Kalashnik, M.V. Kurgansky, O.G. Chkhetiani “Baroclinic instability in geophysical fluid dynamics” 65 1039–1070 (2022)
L.M. Vasilyak, S.V. Kostyuchenko et al “Fast ionisation waves under electrical breakdown conditions” 37 247–268 (1994)
P.K. Shukla, B. Eliasson “Nonlinear aspects of quantum plasma physics” 53 51–76 (2010)
O.G. Onishchenko, O.A. Pokhotelov, N.M. Astaf’eva “Generation of large-scale eddies and zonal winds in planetary atmospheres” 51 577–589 (2008)
L.Kh. Ingel, M.V. Kalashnik “Nontrivial features in the hydrodynamics of seawater and other stratified solutions” 55 356–381 (2012)
M.V. Nezlin “Instability of beams of charged particles in a Plasma” 13 608–627 (1971)
Sh.M. Kogan “Low-frequency current noise with a 1/f spectrum in solids” 28 170–195 (1985)
É.B. Sonin “Superflows and superfluidity” 25 409–430 (1982)
G.A. Lyubimov, V.I. Rakhovskii “The cathode spot of a vacuum arc” 21 693–718 (1978)
K.P. Zybin, V.A. Sirota “Stretching vortex filaments model and the grounds of statistical theory of turbulence” 58 556–573 (2015)
O.G. Onishchenko, O.A. Pokhotelov et al “Structure and dynamics of concentrated mesoscale vortices in planetary atmospheres” 63 683–697 (2020)
V.S. Beskin, V.I. Krauz, S.A. Lamzin “Laboratory modeling of jets from young stars using plasma focus facilities” 66 327–359 (2023)

The list is formed automatically.