Andrey Gebruk

Dr. Andrey Gebruk

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Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

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

Representative Publications

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1 August 2017 in Marine Environmental Research
Verified
Journal Article
Open access
SGSabine Gollner
Sabine Gollner
Stefanie KaiserStefanie Kaiser
Stefanie Kaiser
LMLena Menzel
Lena Menzel
DJDaniel O.B. Jones
Daniel O.B. Jones
ABAlastair Brown
Alastair Brown
PAPedro Martinez Arbizu
Pedro Martinez Arbizu
With increasing demand for mineral resources, extraction of polymetallic sulphides at hydrothermal vents, cobalt-rich ferromanganese crusts at seamounts, and polymetallic nodules on abyssal plains may be imminent. Here, we shortly introduce ecosystem characteristics of mining areas, report on recent mining developments, and identify potential stress and disturbances created by mining. We analyze species' potential resistance to future mining and perform meta-analyses on population density and diversity recovery after disturbances most similar to mining: volcanic eruptions at vents, fisheries on seamounts, and experiments that mimic nodule mining on abyssal plains. We report wide variation in recovery rates among taxa, size, and mobility of fauna. While densities and diversities of some taxa can recover to or even exceed pre-disturbance levels, community composition remains affected after decades. The loss of hard substrata or alteration of substrata composition may cause substantial community shifts that persist over geological timescales at mined sites.

26 February 2013 in Journal of the Marine Biological Association of the United Kingdom
Verified
Journal Article
Closed access
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AGAndrey Gebruk
Andrey Gebruk
EKElena M. Krylova
Elena M. Krylova
Megafauna from the Charlie–Gibbs Fracture Zone (northern Mid-Atlantic Ridge) based on video observations from submersibles was analysed. Species composition was examined, frequency of species occurrence on the fracture wall and its base (depth range from 1740 m to 3100 m) and density of megafauna in the depression at the fracture zone bottom (4200–4500 m depth) were evaluated. At depths between 1700 and 2500 m hexactinellid sponges were most common and diverse. Deeper parts of the wall and its base were dominated by anthozoans (especially gorgonian corals) and echinoderms. A set of dominant species in the lower bathyal in the study area was different from that on the lower continental slope in the north-east Atlantic (Porcupine Seabight). An important contribution to local species richness of ‘rare’ species was demonstrated. The elpidiid holothurian, Kolga nana, occurred at high density in the abyssal depression.

9 March 2006 in Marine Biology
Verified
Journal Article
Closed access
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HIHiromi Iwasaki
Hiromi Iwasaki
AKAkiko Kyuno
Akiko Kyuno
MSMifue Shintaku
Mifue Shintaku
YFYuko Fujita
Yuko Fujita
YFYoshihiro Fujiwara
Yoshihiro Fujiwara
JMJun-Ichi Miyazaki
Jun-Ichi Miyazaki

1 January 2022 in Deep Sea Research Part II: Topical Studies in Oceanography
Verified
Journal Article
Closed access
OEOlga Ezhova
Olga Ezhova
ALAnastasiya Ivanovna Lukinykh
Anastasiya Ivanovna Lukinykh
SGSergey Vladimirovich Galkin
Sergey Vladimirovich Galkin
EKElena Mikhailovna Krylova
Elena Mikhailovna Krylova
AGAndrey Gebruk
Andrey Gebruk


29 June 2021 in PeerJ
Verified
Journal Article
Open access
PDF file
AVAndrey Vedenin
Andrey Vedenin
SGSergey Galkin
Sergey Galkin
AMAlexander N. Mironov
Alexander N. Mironov
AGAndrey Gebruk
Andrey Gebruk
The bathymetric distribution of species of Annelida, Crustacea and Echinodermata from the region including the Kara, Laptev and East Siberian seas and the adjacent region of the deep-sea Central Arctic was analysed. We focused on vertical species ranges revealing zones of crowding of upper and lower species range limits. Using published data and in part the material obtained during the expeditions of the P.P. Shirshov Institute of Oceanology, we evaluated species vertical distribution from 0 m to the maximum depth of the Central Arctic (~4,400 m). The entire depth range was divided into smaller intervals; number of upper and lower limits of species depth ranges was counted and plotted to visualize the range limits crowding. Several zones of crowding of vertical species range limits were found for all analysed macrotaxa. The most significant zones occurred at depths of 450–800 m and 1,800–2,000 m. The first depth zone corresponds to the boundary between the sublittoral and bathyal faunas. The last one marks the boundary between the bathyal and abyssal faunas. Depths of these boundaries differ from those reported from other Ocean regions; possible explanations of these differences are discussed.