Eugene Morozov

Dr. Eugene Morozov

P.P. Shirshov Institute of Oceanology of Russian Academy of Sciences, Russian Federation, 36, Nakhimovskii prospect, 117997 Moscow, Russia
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Research Focus & Metrics

Academic Career Length

32Years (1995-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 1995 in Deep Sea Research Part I: Oceanographic Research Papers
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Journal Article
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EMEugene Morozov
Eugene Morozov


1 January 2010
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Book
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EMEugene Morozov
Eugene Morozov
ADAlexander N. Demidov
Alexander N. Demidov
RTRoman Y. Tarakanov
Roman Y. Tarakanov
WZWalter Zenk
Walter Zenk

26 July 2007 in Geophysical Research Letters
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WZWalter Zenk
Walter Zenk
EMEugene Morozov
Eugene Morozov

1 November 2002 in Journal of Physical Oceanography
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Journal Article
Open access
EMEugene Morozov
Eugene Morozov
KTKarsten Trulsen
Karsten Trulsen
MVManuel G. Velarde
Manuel G. Velarde
VVVasily I. Vlasenko
Vasily I. Vlasenko

18 November 2014 in Geophysical Research Letters
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HHHans van Haren
Hans van Haren
LGLouis Gostiaux
Louis Gostiaux
EMEugene Morozov
Eugene Morozov
RTRoman Tarakanov
Roman Tarakanov
In the Atlantic Ocean, the densest water mass Antarctic Bottom Water “AABW” can only cross the Mid‐Atlantic Ridge from its southwestern to northeastern basins in limited, because deep, conduits. At the southwestern entrance of one of these, the equatorial Romanche Fracture Zone, AABW crosses a sill at 4550 m depth in a 7 km narrow channel before plunging into the deep. At the sill‐slope, the rapidly flowing AABW causes shear‐induced turbulent mixing with the overlying water masses. We present an excerpt of 1 Hz sampled, half‐yearlong moored observations from 99 high‐resolution temperature sensors that demonstrate and quantify the turbulence details. On top of quasi‐steady shear flow, an internal tide modulates the mixing. Together, they constitute a means for an extremely long train of >250 consecutive Kelvin‐Helmholtz billows in a day that vary between 5 and 100 m in vertical scale.