Mathematical modeling the density of sea water in the deep pond
https://doi.org/10.23947/2587-8999-2018-2-2-121-132
Abstract
The paper covers the mathematical model of hydrodynamics of a deep water reservoir-the sea of Japan, taking into account the complex geometry of the shoreline and the bottom, friction on the bottom and wind currents, evaporation, deviation of the pressure field from the hydrostatic approximation, water density as a function of the spatial distribution of temperature and salinity, is proposed and investigated. The models of observations for the functions included in the model problem, including the dependence of the water density distribution on the spatial distribution of its temperature, salinity and ionic composition, are determined and investigated. The application of these models is based on electrical conductivity and temperature, which makes them as accurate as possible in different conditions.
Keywords
mathematical model,
deep water reservoir,
pressure field,
the hydrostatic approximation,
spatial distribution of temperature and salinity
Supporting agencies: The research is done with the financial support from the RSF, Projects No. 17-11-01286.
About the Author
Alla Valeryevna Nikitina
Southern Federal University
(Chekhov str., 2, Taganrog, Russian Federation)
Russian Federation
Russian Federation
Nikitina Alla Valeryevna, Southern Federal University (Chekhov str., 2, Taganrog, Russian Federation), Doctor of Technical Science, Associate professor
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Review
For citations:
Nikitina A.V. Mathematical modeling the density of sea water in the deep pond. Computational Mathematics and Information Technologies. 2018;2(2). https://doi.org/10.23947/2587-8999-2018-2-2-121-132
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