Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200

Clay mineral and bulk chemical (Si, Al, K, Mg, Sr, La, Ce, Nd) analyses of terrigenous surface sediments on the Siberian-Arctic shelf indicate that there are five regions with distinct, or endmember, sedimentary compositions. The formation of these geochemical endmembers is controlled by sediment pr...

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Main Authors: Viscosi-Shirley, C, Mammone, K, Pisias, Nicklas G, Dymond, Jack R
Format: Article in Journal/Newspaper
Language:English
Published: PANGAEA - Data Publisher for Earth & Environmental Science 2003
Subjects:
Online Access:https://dx.doi.org/10.1594/pangaea.736817
https://doi.pangaea.de/10.1594/PANGAEA.736817
id ftdatacite:10.1594/pangaea.736817
record_format openpolar
institution Open Polar
collection DataCite Metadata Store (German National Library of Science and Technology)
op_collection_id ftdatacite
language English
topic Grab
Gravity corer
BI64
NW63
NW362
Northwind
Archive of Ocean Data ARCOD
spellingShingle Grab
Gravity corer
BI64
NW63
NW362
Northwind
Archive of Ocean Data ARCOD
Viscosi-Shirley, C
Mammone, K
Pisias, Nicklas G
Dymond, Jack R
Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200
topic_facet Grab
Gravity corer
BI64
NW63
NW362
Northwind
Archive of Ocean Data ARCOD
description Clay mineral and bulk chemical (Si, Al, K, Mg, Sr, La, Ce, Nd) analyses of terrigenous surface sediments on the Siberian-Arctic shelf indicate that there are five regions with distinct, or endmember, sedimentary compositions. The formation of these geochemical endmembers is controlled by sediment provenance and grain size sorting. (1) The shale endmember (Al, K and REE rich sediment) is eroded from fine-grained marine sedimentary rocks of the Verkhoyansk Mountains and Kolyma-Omolon superterrain, and discharged to the shelf by the Lena, Yana, Indigirka and Kolyma Rivers. (2) The basalt endmember (Mg rich) originates from NE Siberia's Okhotsk-Chukotsk volcanic belt and Bering Strait inflow, and is prevalent in Chukchi Sea Sediments. Concentrations of the volcanically derived clay mineral smectite are elevated in Chukchi fine-fraction sediments, corroborating the conclusion that Chukchi sediments are volcanic in origin. (3) The mature sandstone endmember (Si rich) is found proximal to Wrangel Island and sections of the Chukchi Sea's Siberian coast and is derived from the sedimentary Chukotka terrain that comprises these landmasses. (4) The immature sandstone endmember (Sr rich) is abundant in the New Siberian Island region and reflects inputs from sedimentary rocks that comprise the islands. (5) The immature sandstone endmember is also prevalent in the western Laptev Sea, where it is eroded from sedimentary deposits blanketing the Siberian platform that are compositionally similar to those on the New Siberian Islands. Western Laptev can be distinguished from New Siberian Island region sediments by their comparatively elevated smectite concentrations and the presence of the basalt endmember, which indicate Siberian platform flood basalts are also a source of western Laptev sediments. In certain locations grain size sorting noticeably affects shelf sediment chemistry. (1) Erosion of fines by currents and sediment ice rafting contributes to the formation of the coarse-grained sandstone endmembers. (2) Bathymetrically controlled grain size sorting, in which fines preferentially accumulate offshore in deeper, less energetic water, helps distribute the fine-grained shale and basalt endmembers. An important implication of these results is that the observed sedimentary geochemical endmembers provide new markers of sediment provenance, which can be used to track sediment transport, ice-rafted debris dispersal or the movement of particle-reactive contaminants.
format Article in Journal/Newspaper
author Viscosi-Shirley, C
Mammone, K
Pisias, Nicklas G
Dymond, Jack R
author_facet Viscosi-Shirley, C
Mammone, K
Pisias, Nicklas G
Dymond, Jack R
author_sort Viscosi-Shirley, C
title Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200
title_short Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200
title_full Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200
title_fullStr Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200
title_full_unstemmed Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200
title_sort clay mineralogy and multi-element chemistry of surface sediments on the aiberian-arctic shelf, supplement to: viscosi-shirley, c; mammone, k; pisias, nicklas g; dymond, jack r (2003): clay mineralogy and multi-element chemistry of surface sediments on the siberian arctic shelf: implications for sediment provenance and grain size sorting. continental shelf research, 23(11-13), 1175-1200
publisher PANGAEA - Data Publisher for Earth & Environmental Science
publishDate 2003
url https://dx.doi.org/10.1594/pangaea.736817
https://doi.pangaea.de/10.1594/PANGAEA.736817
long_lat ENVELOPE(161.000,161.000,69.500,69.500)
ENVELOPE(-179.385,-179.385,71.244,71.244)
ENVELOPE(149.609,149.609,70.929,70.929)
ENVELOPE(142.000,142.000,75.000,75.000)
ENVELOPE(133.400,133.400,67.544,67.544)
geographic Arctic
Laptev Sea
Okhotsk
Chukchi Sea
Bering Strait
Kolyma
Wrangel Island
Indigirka
New Siberian Islands
Verkhoyansk
geographic_facet Arctic
Laptev Sea
Okhotsk
Chukchi Sea
Bering Strait
Kolyma
Wrangel Island
Indigirka
New Siberian Islands
Verkhoyansk
genre Arctic
Bering Strait
Chukchi
Chukchi Sea
Chukotka
laptev
Laptev Sea
New Siberian Islands
Wrangel Island
genre_facet Arctic
Bering Strait
Chukchi
Chukchi Sea
Chukotka
laptev
Laptev Sea
New Siberian Islands
Wrangel Island
op_relation https://dx.doi.org/10.1016/s0278-4343(03)00091-8
op_rights Creative Commons Attribution 3.0 Unported
https://creativecommons.org/licenses/by/3.0/legalcode
cc-by-3.0
op_rightsnorm CC-BY
op_doi https://doi.org/10.1594/pangaea.736817
https://doi.org/10.1016/s0278-4343(03)00091-8
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spelling ftdatacite:10.1594/pangaea.736817 2023-05-15T14:59:47+02:00 Clay mineralogy and multi-element chemistry of surface sediments on the Aiberian-Arctic Shelf, supplement to: Viscosi-Shirley, C; Mammone, K; Pisias, Nicklas G; Dymond, Jack R (2003): Clay mineralogy and multi-element chemistry of surface sediments on the Siberian Arctic shelf: implications for sediment provenance and grain size sorting. Continental Shelf Research, 23(11-13), 1175-1200 Viscosi-Shirley, C Mammone, K Pisias, Nicklas G Dymond, Jack R 2003 application/zip https://dx.doi.org/10.1594/pangaea.736817 https://doi.pangaea.de/10.1594/PANGAEA.736817 en eng PANGAEA - Data Publisher for Earth & Environmental Science https://dx.doi.org/10.1016/s0278-4343(03)00091-8 Creative Commons Attribution 3.0 Unported https://creativecommons.org/licenses/by/3.0/legalcode cc-by-3.0 CC-BY Grab Gravity corer BI64 NW63 NW362 Northwind Archive of Ocean Data ARCOD article Supplementary Collection of Datasets Collection 2003 ftdatacite https://doi.org/10.1594/pangaea.736817 https://doi.org/10.1016/s0278-4343(03)00091-8 2022-02-09T12:06:21Z Clay mineral and bulk chemical (Si, Al, K, Mg, Sr, La, Ce, Nd) analyses of terrigenous surface sediments on the Siberian-Arctic shelf indicate that there are five regions with distinct, or endmember, sedimentary compositions. The formation of these geochemical endmembers is controlled by sediment provenance and grain size sorting. (1) The shale endmember (Al, K and REE rich sediment) is eroded from fine-grained marine sedimentary rocks of the Verkhoyansk Mountains and Kolyma-Omolon superterrain, and discharged to the shelf by the Lena, Yana, Indigirka and Kolyma Rivers. (2) The basalt endmember (Mg rich) originates from NE Siberia's Okhotsk-Chukotsk volcanic belt and Bering Strait inflow, and is prevalent in Chukchi Sea Sediments. Concentrations of the volcanically derived clay mineral smectite are elevated in Chukchi fine-fraction sediments, corroborating the conclusion that Chukchi sediments are volcanic in origin. (3) The mature sandstone endmember (Si rich) is found proximal to Wrangel Island and sections of the Chukchi Sea's Siberian coast and is derived from the sedimentary Chukotka terrain that comprises these landmasses. (4) The immature sandstone endmember (Sr rich) is abundant in the New Siberian Island region and reflects inputs from sedimentary rocks that comprise the islands. (5) The immature sandstone endmember is also prevalent in the western Laptev Sea, where it is eroded from sedimentary deposits blanketing the Siberian platform that are compositionally similar to those on the New Siberian Islands. Western Laptev can be distinguished from New Siberian Island region sediments by their comparatively elevated smectite concentrations and the presence of the basalt endmember, which indicate Siberian platform flood basalts are also a source of western Laptev sediments. In certain locations grain size sorting noticeably affects shelf sediment chemistry. (1) Erosion of fines by currents and sediment ice rafting contributes to the formation of the coarse-grained sandstone endmembers. (2) Bathymetrically controlled grain size sorting, in which fines preferentially accumulate offshore in deeper, less energetic water, helps distribute the fine-grained shale and basalt endmembers. An important implication of these results is that the observed sedimentary geochemical endmembers provide new markers of sediment provenance, which can be used to track sediment transport, ice-rafted debris dispersal or the movement of particle-reactive contaminants. Article in Journal/Newspaper Arctic Bering Strait Chukchi Chukchi Sea Chukotka laptev Laptev Sea New Siberian Islands Wrangel Island DataCite Metadata Store (German National Library of Science and Technology) Arctic Laptev Sea Okhotsk Chukchi Sea Bering Strait Kolyma ENVELOPE(161.000,161.000,69.500,69.500) Wrangel Island ENVELOPE(-179.385,-179.385,71.244,71.244) Indigirka ENVELOPE(149.609,149.609,70.929,70.929) New Siberian Islands ENVELOPE(142.000,142.000,75.000,75.000) Verkhoyansk ENVELOPE(133.400,133.400,67.544,67.544)