Transactions of KarRC RAS :: Scientific publications
Transactions of KarRC RAS :: Scientific publications

Transactions of KarRC RAS :: Scientific publications
Karelian Research Centre of RAS
ISSN (print): 1997-3217
ISSN (online): 2312-4504
Transactions of KarRC RAS :: Scientific publications
Background Editorial committee Editorial Office For authors For reviewer Russian version
Transactions of KarRC RAS :: Scientific publications

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SCIENTIFIC PUBLICATIONS
С.Г. Демышев, О.А. Дымова.
Анализ энергетического цикла Лоренца для различных режимов циркуляции Черного моря
S.G. Demyshev, O.A. Dymova. Analysis of the Lorenz energy cycle for different regimes of the Black Sea circulation // Transactions of Karelian Research Centre of Russian Academy of Science. No 6. Limnology and oceanology. 2022. P. 26–40
Keywords: Black Sea; Lorenz energy cycle; mean circulation; eddy; barotropic and baroclinic instability
The Lorentz energy cycle components are calculated from numerically simulated data on the Black Sea dynamics for three regimes: climatic circulation, basin-scale (2011), and eddy (2016) circulations. The some common features have been found between climatic and realistic energy. The mean annual conversion of energy from mean motion to eddy motion is observed for all circulation regimes. The annual mean buoyancy work increases the mean current for all experiments, which indicates that the slope of the isopycnal surfaces remains such that the condition for converting the available potential energy into kinetic energy is realized. The qualitative difference is that the conversion of eddy kinetic energy into available potential energy is observed only for climatic circulation. For basin-scale circulation, the variability of the eddy kinetic energy is determined by the flux formed by the transformation of kinetic energy due to the barotropic instability of the mean current. For the eddy regime, the growth in the eddy kinetic energy is a result of the available potential energy conversion into kinetic energy due to baroclinic instability. The circulation regime, as well as the qualitative and quantitative difference in the magnitudes and directions of energy conversion, are primarily associated with atmospheric forcing.
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