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  • 2010-2014  (3,085,408)
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  • 1
    Publication Date: 2024-06-27
    Keywords: Campaign of event; Capricornio; Capricornio03050504; Capricornio03050504_1; Capricornio03050504_2; Capricornio03050504_22; Capricornio03050504_23; Capricornio03050504_24; Capricornio03050504_3; Capricornio03050504_68; Capricornio03050504_69; Capricornio03050504_70; Capricornio03050504_71; Capricornio03050504_72; Capricornio03050504_74; Capricornio03050504_75; Capricornio03050504_76; Capricornio03050504_77; Capricornio03050504_78; Capricornio03050504_79; Capricornio03050504_80; Capricornio03050504_80-II; Capricornio03050504_81-II; Capricornio03050504_82-II; Capricornio03050504_85; Capricornio03050504_86; Capricornio03050504_87; Capricornio03050504_88; DATE/TIME; Event label; Latitude of event; Longitude of event; NW-Spain; PELACUS0300; PELACUS0300_1; PELACUS0300_100; PELACUS0300_2; PELACUS0300_3; PELACUS0300_31; PELACUS0300_32; PELACUS0300_33; PELACUS0300_34; PELACUS0300_35; PELACUS0300_4; PELACUS0300_5; PELACUS0300_53; PELACUS0300_54; PELACUS0300_55; PELACUS0300_56; PELACUS0300_57; PELACUS0300_58; PELACUS0300_59; PELACUS0300_97; PELACUS0300_98; PELACUS0300_99; PELACUS0302; PELACUS0302_113; PELACUS0302_114; PELACUS0302_115; PELACUS0302_116; PELACUS0302_117; PELACUS0302_118; PELACUS0302_119; PELACUS0302_136; PELACUS0302_137; PELACUS0302_138; PELACUS0302_139; PELACUS0302_140; PELACUS0302_141; PELACUS0302_142; PELACUS0302_16; PELACUS0302_17; PELACUS0302_18; PELACUS0302_19; PELACUS0302_20; PELACUS0302_31; PELACUS0302_32; PELACUS0302_33; PELACUS0302_34; PELACUS0302_35; PELACUS0302_36; PELACUS0302_50; PELACUS0302_51; PELACUS0302_52; PELACUS0302_53; PELACUS0302_54; PELACUS0302_55; PELACUS0302_63; PELACUS0302_64; PELACUS0302_65; PELACUS0302_66; PELACUS0302_67; PELACUS0302_68; PELACUS0302_84; PELACUS0302_85; PELACUS0302_86; PELACUS0302_87; PELACUS0302_88; PELACUS0302_89; PELACUS0302_90; PELACUS0303; PELACUS0303_102; PELACUS0303_104; PELACUS0303_134; PELACUS0303_136; PELACUS0303_138; PELACUS0303_15; PELACUS0303_18; PELACUS0303_21; PELACUS0303_22; PELACUS0303_25; PELACUS0303_28; PELACUS0303_48; PELACUS0303_50; PELACUS0303_53; PELACUS0303_59; PELACUS0303_61; PELACUS0303_63; PELACUS0303_79; PELACUS0303_81; PELACUS0303_83; PELACUS0303_99; PELACUS0399; PELACUS0399_100; PELACUS0399_36; PELACUS0399_37; PELACUS0399_38; PELACUS0399_39; PELACUS0399_40; PELACUS0399_51; PELACUS0399_52; PELACUS0399_53; PELACUS0399_54; PELACUS0399_55; PELACUS0399_66; PELACUS0399_67; PELACUS0399_68; PELACUS0399_69; PELACUS0399_70; PELACUS0399_81; PELACUS0399_82; PELACUS0399_83; PELACUS0399_84; PELACUS0399_85; PELACUS0399_96; PELACUS0399_97; PELACUS0399_98; PELACUS0399_99; PELACUS0401; PELACUS0401_1; PELACUS0401_10; PELACUS0401_11; PELACUS0401_119; PELACUS0401_12; PELACUS0401_120; PELACUS0401_121; PELACUS0401_122; PELACUS0401_123; PELACUS0401_13; PELACUS0401_14; PELACUS0401_142; PELACUS0401_143; PELACUS0401_144; PELACUS0401_145; PELACUS0401_146; PELACUS0401_147; PELACUS0401_15; PELACUS0401_16; PELACUS0401_17; PELACUS0401_18; PELACUS0401_19; PELACUS0401_2; PELACUS0401_20; PELACUS0401_21; PELACUS0401_22; PELACUS0401_24; PELACUS0401_25; PELACUS0401_26; PELACUS0401_27; PELACUS0401_28; PELACUS0401_29; PELACUS0401_3; PELACUS0401_30; PELACUS0401_4; PELACUS0401_45; PELACUS0401_46; PELACUS0401_47; PELACUS0401_48; PELACUS0401_5; PELACUS0401_6; PELACUS0401_63; PELACUS0401_64; PELACUS0401_65; PELACUS0401_66; PELACUS0401_67; PELACUS0401_68; PELACUS0401_7; PELACUS0401_8; PELACUS0401_9; PELACUS0401_92; PELACUS0401_93; PELACUS0401_94; PELACUS0401_95; PELACUS0401_96; PELACUS0404; PELACUS0404_10; PELACUS0404_26; PELACUS0404_28; PELACUS0404_30; PELACUS0404_41; PELACUS0404_43; PELACUS0404_45; PELACUS0404_6; PELACUS0404_66; PELACUS0404_67; PELACUS0404_69; PELACUS0404_8; PELACUS0404_91; PELACUS0404_93; PELACUS0404_94; PELACUS0404_95; PELACUS0404_96; PELACUS0404_98; PLA; Plankton net; Size fraction; Station label; SW-Spain; Thalassa; Time of day; δ13C; δ15N
    Type: Dataset
    Format: text/tab-separated-values, 3870 data points
    Location Call Number Expected Availability
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  • 2
    Publication Date: 2024-06-27
    Keywords: 1014-1; 1060-1; 1072-1; 1078-1; 1081-1; 867-1; 876-1; 877-1; 878-1; 879-1; 885-1; 886-1; 887-1; 905-1; 906-1; 907-1; 922-1; 925-1; 926-1; 942-1; 943-1; 960-1; 961-1; 963-1; 969-1; Arguin mud wedge; Banda mounds; Canyon area southern Banc dArguin; Cap Timiris; CTD, Sea-Bird SBE 911plus; CTD/Rosette; CTD-RO; Date/Time of event; Density, sigma-theta (0); DEPTH, water; Event label; GeoB14701-1; GeoB14710-1; GeoB14711-1; GeoB14712-1; GeoB14713-1; GeoB14719-1; GeoB14720-1; GeoB14721-1; GeoB14740-1; GeoB14741-1; GeoB14742-1; GeoB14757-1; GeoB14760-1; GeoB14761-1; GeoB14777-1; GeoB14778-1; GeoB14794-1; GeoB14795-1; GeoB14797-1; GeoB14803-1; GeoB14846-1; GeoB14894-1; GeoB14906-1; GeoB14912-1; GeoB14915-1; Giant box corer; GKG; Latitude of event; Longitude of event; Maria S. Merian; MSM16/3; northern Banda slide; northern canyon area west of Banc dArguin; northern canyon area west of Banc dArguin (ROV3); outer shelf southern Banc dArguin; Oxygen; Salinity; southern Banc d Arguin; southern Banda slide; southernmost mound chain; Temperature, water; Temperature, water, potential; Timiris canyon; Timiris Canyon system; Turbidity (Nephelometric turbidity unit)
    Type: Dataset
    Format: text/tab-separated-values, 280746 data points
    Location Call Number Expected Availability
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  • 3
    Publication Date: 2024-06-27
    Keywords: 1038-1; Canyon area W of Cap Timirs; Cast number; CTD, Sea-Bird SBE 911plus; CTD-yoyo; DATE/TIME; Density, sigma-theta (0); DEPTH, water; GeoB14870-1; Maria S. Merian; MSM16/3; Oxygen; Salinity; Temperature, water; Turbidity (Nephelometric turbidity unit); Yoyo-CTD
    Type: Dataset
    Format: text/tab-separated-values, 271573 data points
    Location Call Number Expected Availability
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  • 4
    Publication Date: 2024-06-27
    Keywords: 1067-1; between Banda mounds & Banda slide; Cast number; CTD, Sea-Bird SBE 911plus; CTD-yoyo; DATE/TIME; Density, sigma-theta (0); DEPTH, water; GeoB14901-1; Maria S. Merian; MSM16/3; Oxygen; Salinity; Temperature, water; Turbidity (Nephelometric turbidity unit); Yoyo-CTD
    Type: Dataset
    Format: text/tab-separated-values, 322200 data points
    Location Call Number Expected Availability
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  • 5
    Publication Date: 2024-06-27
    Keywords: 1048-1; Cast number; CTD, Sea-Bird SBE 911plus; CTD-yoyo; DATE/TIME; Density, sigma-theta (0); DEPTH, water; GeoB14881-1; Maria S. Merian; MSM16/3; Oxygen; Salinity; Temperature, water; Timiris coral mound chain; Turbidity (Nephelometric turbidity unit); Yoyo-CTD
    Type: Dataset
    Format: text/tab-separated-values, 233730 data points
    Location Call Number Expected Availability
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  • 6
    Publication Date: 2024-06-27
    Keywords: 1054-1; Canyon S of Timiris mound chain; Cast number; CTD, Sea-Bird SBE 911plus; CTD-yoyo; DATE/TIME; Density, sigma-theta (0); DEPTH, water; GeoB14887-1; Maria S. Merian; MSM16/3; Oxygen; Salinity; Temperature, water; Turbidity (Nephelometric turbidity unit); Yoyo-CTD
    Type: Dataset
    Format: text/tab-separated-values, 273186 data points
    Location Call Number Expected Availability
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  • 7
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    Unknown
    PANGAEA
    In:  Supplement to: Michel, Julien; Mateu-Vicens, G; Westphal, Hildegard (2011): Modern heterozoan carbonates from a eutrophic tropical shelf (Mauritania). Journal of Sedimentary Research, 81(9-10), 641–655, https://doi.org/10.2110/jsr.2011.53
    Publication Date: 2024-06-26
    Description: Heterozoan carbonates are typical for extratropical sedimentary systems. However, under mesotrophic to eutrophic conditions, heterozoan carbonates also form in tropical settings. Nevertheless, such heterozoan tropical sedimentary systems are rare in the modern world and therefore are only poorly understood to date. Here a carbonate depositional system is presented where nutrient-rich upwelling waters push onto a wide shelf. These waters warm up in the shelf, giving rise to the production and deposition of tropical heterozoan facies. The carbonate facies on this shelf are characterized by a mixture of tropical and cosmopolitan biogenic sedimentary grains. Study of facies and taxonomy are the key for identifying and characterizing tropical heterozoan carbonates and for distinguishing them from their coolwater counterparts, in particular in the past where the oceanography cannot be determined directly.
    Keywords: 261; 262; BG; Boomerang-Grab; Center for Marine Environmental Sciences; CTD/Rosette; CTD-RO; Dredge; DRG; GeoB11501-1; GeoB11511B; GeoB11511C; GeoB11511D; GeoB11511E; GeoB11511F; GeoB11511G; GeoB11513-2; GeoB11514-1; GeoB11515-1; GeoB11516-1; GeoB11522-1; GeoB11524-1; GeoB11525-1; GeoB11526-1; GeoB11527-1; GeoB11528-1; GeoB11529-1; GeoB11530-1; GeoB11531-1; GeoB11532-1; GeoB11533-1; GeoB11534-1; GeoB11535-1; GeoB11540-1; GeoB11547-1; GeoB11549-1; GeoB11591A; GeoB11593-1; GeoB11594-1; GeoB11595-1; GeoB11597-1; GeoB11601-1; GeoB11602-1; GeoB11603-1; GeoB11604-1; GeoB11606-1; GeoB11607-1; GeoB11613-2; GeoB11614-1; GeoB11614-2; GeoB13018-1; GeoB13019-1; Giant box corer; GKG; Grab; GRAB; MARUM; off Mauritania; POS346; POS-346; POS346_01; POS346_100-1; POS346_101-1; POS346_102-1; POS346_103-1; POS346_105-1; POS346_111-2; POS346_112-1; POS346_112-2; POS346_11B; POS346_11C; POS346_11D; POS346_11E; POS346_11F; POS346_11G; POS346_13-2; POS346_14-1; POS346_15-1; POS346_16-1; POS346_22-1; POS346_24-1; POS346_25-1; POS346_26-1; POS346_27-1; POS346_28-1; POS346_29-1; POS346_30-1; POS346_31-1; POS346_32-1; POS346_33-1; POS346_34-1; POS346_35-1; POS346_40-1; POS346_47-1; POS346_49-1; POS346_91A; POS346_93-1; POS346_94-1; POS346_95-1; POS346_97-1; POS346_98-1; POS366/1; Poseidon; van Veen Grab; VGRAB
    Type: Dataset
    Format: application/zip, 2 datasets
    Location Call Number Expected Availability
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  • 8
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    Unknown
    PANGAEA
    In:  Supplement to: Kretschmer, Sven; Geibert, Walter; Rutgers van der Loeff, Michiel M; Mollenhauer, Gesine (2010): Grain size effects on Th-230 (xs) inventories in opal-rich and carbonate-rich marine sediments. Earth and Planetary Science Letters, 294(1-2), 131-142, https://doi.org/10.1016/j.epsl.2010.03.021
    Publication Date: 2024-06-26
    Description: Excess Thorium-230 (230Thxs) as a constant flux tracer is an essential tool for paleoceanographic studies, but its limitations for flux normalization are still a matter of debate. In regions of rapid sediment accumulation, it has been an open question if 230Thxs-normalized fluxes are biased by particle sorting effects during sediment redistribution. In order to study the sorting effect of sediment transport on 230Thxs, we analyzed the specific activity of 230Thxs in different particle size classes of carbonate-rich sediments from the South East Atlantic, and of opal-rich sediments from the Atlantic sector of the Southern Ocean. At both sites, we compare the 230Thxs distribution in neighboring high vs. low accumulation settings. Two grain-size fractionation methods are explored. We find that the 230Thxs distribution is strongly grain size dependent, and 50-90% of the total 230Thxs inventory is concentrated in fine material smaller than 10 µm, which is preferentially deposited at the high accumulation sites. This leads to an overestimation of the focusing factor Psi, and consequently to an underestimation of the vertical flux rate at such sites. The distribution of authigenic uranium indicates that fine organic-rich material has also been re-deposited from lateral sources. If the particle sorting effect is considered in the flux calculations, it reduces the estimated extent of sediment focusing. In order to assess the maximum effect of particle sorting on Psi, we present an extreme scenario, in which we assume a lateral sediment supply of only fine material (〈 10 µm). In this case, the focusing factor of the opal-rich core would be reduced from Psi = 5.9 to Psi = 3.2. In a more likely scenario, allowing silt-sized material to be transported, Psi is reduced from 5.9 to 5.0 if particle sorting is taken into consideration. The bias introduced by particle sorting is most important for strongly focused sediments. Comparing 230Thxs-normalized mass fluxes biased by sorting effects with uncorrected mass fluxes, we suggest that 230Thxs-normalization is still a valid tool to correct for lateral sediment redistribution. However, differences in focusing factors between core locations have to be evaluated carefully, taking the grain size distributions into consideration.
    Keywords: ANT-VIII/3; AWI_MarGeoChem; Center for Marine Environmental Sciences; GeoB1027-2; GeoB1028-4; Giant box corer; GKG; Gravity corer (Kiel type); M6/6; Marine Geochemistry @ AWI; MARUM; Meteor (1986); Polarstern; PS16; PS16/311; PS16/312; PS1768-8; PS1769-1; Shona Ridge; SL; Walvis Ridge
    Type: Dataset
    Format: application/zip, 6 datasets
    Location Call Number Expected Availability
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  • 9
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    Unknown
    PANGAEA
    In:  Supplement to: Smith, James A; Hillenbrand, Claus-Dieter; Kuhn, Gerhard; Larter, Robert D; Graham, Alastair G C; Ehrmann, Werner; Moreton, Steven Grahame; Forwick, Matthias (2011): Deglacial history of the West Antarctic Ice Sheet in the western Amundsen Sea Embayment. Quaternary Science Reviews, 30(5-6), 488-505, https://doi.org/10.1016/j.quascirev.2010.11.020
    Publication Date: 2024-06-26
    Description: The Amundsen Sea Embayment (ASE) drains approximately 35% of the West Antarctic Ice Sheet (WAIS) and is one of the most rapidly changing parts of the cryosphere. In order to predict future ice-sheet behaviour, modellers require long-term records of ice-sheet melting to constrain and build confidence in their simulations. Here, we present detailed marine geological and radiocarbon data along three palaeo-ice stream tributary troughs in the western ASE to establish vital information on the timing of deglaciation of the WAIS since the Last Glacial Maximum (LGM). We have undertaken multi-proxy analyses of the cores (core description, shear strength, x-radiographs, magnetic susceptibility, wet bulk density, total organic carbon/nitrogen, carbonate content and clay mineral analyses) in order to: (1) characterise the sedimentological facies and depositional environments; and (2) identify the horizon(s) in each core that would yield the most reliable age for deglaciation. In accordance with previous studies we identify three key facies, which offer the most reliable stratigraphies for dating deglaciation by recording the transition from a grounded ice sheet to open marine environments. These facies are: i) subglacial, ii) proximal grounding-line, and iii) seasonal open-marine. In addition, we incorporate ages from other facies (e.g., glaciomarine diamictons deposited at some distance from the grounding line, such as glaciogenic debris flows and iceberg rafted diamictons and turbates) into our deglacial model. In total, we have dated 78 samples (mainly the acid insoluble organic (AIO) fraction, but also calcareous foraminifers), which include 63 downcore and 15 surface samples. Through careful sample selection prior to dating, we have established a robust deglacial chronology for this sector of the WAIS. Our data show that deglaciation of the western ASE was probably underway as early as 22,351 calibrated years before present (cal 44 yr BP), reaching the mid-shelf by 13,837 cal yr BP and the inner shelf to within c.10-12 km of the present ice shelf front between 12,618 and 10,072 cal yr BP. The deglacial steps in the western ASE broadly coincide with the rapid rises in sea-level associated with global meltwater pulses 1a and 1b, although given the potential dating uncertainty, additional, more precise ages are required before these findings can be fully substantiated. Finally, we show that the rate of ice-sheet retreat increased across the deep (up to1,600 m) basins of the inner shelf, highlighting the importance of reverse slope and pinning points in accelerated phases of deglaciation.
    Keywords: Amundsen Sea; ANT-XXIII/4; BC; Box corer; GC; Giant box corer; GKG; Gravity corer; James Clark Ross; JR141_VC408; JR141_VC411; JR141_VC415; JR141_VC417; JR141_VC418; JR141_VC419; JR141_VC422; JR141_VC424; JR141_VC425; JR141_VC427; JR141_VC428; JR141_VC430; JR141_VC436; JR141 JR150; JR20060109; Polarstern; Priority Programme 1158 Antarctic Research with Comparable Investigations in Arctic Sea Ice Areas; PS69; PS69/265-3; PS69/267-1; PS69/267-2; PS69/273-2; PS69/274-1; PS69/275-1; PS69/280-1; PS69/283-6; SPP1158; VC; VC408; VC411; VC415; VC417; VC418; VC419; VC422; VC424; VC425; VC427; VC428; VC430; VC436; Vibro corer
    Type: Dataset
    Format: application/zip, 76 datasets
    Location Call Number Expected Availability
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  • 10
    facet.materialart.
    Unknown
    PANGAEA
    In:  Alfred Wegener Institute, Helmholtz Centre for Polar and Marine Research, Bremerhaven
    Publication Date: 2024-06-26
    Description: Transects of a Remotely Operated Vehicle (ROV) providing sea-bed videos and photographs were carried out during POLARSTERN expedition ANT-XVII/3 focussing on the ecology of benthic assemblages on the Antarctic shelf in the South-Eastern Weddell Sea. The ROV-system sprint 103 was equiped with two video- and one still camera, lights, flash-lights, compass, and parallel lasers providing a scale in the images, a tether-management system (TMS), a winch, and the board units. All cameras used the same main lense and could be tilted. Videos were recorded in Betacam-format and (film-)slides were made by decision of the scientific pilot. The latter were mainly made under the aspect to improve the identification of organisms depicted in the videos because the still photographs have a much higher optical resolution than the videos. In the photographs species larger than 3 mm, in the videos larger than 1 cm are recognisable and countable. Under optimum conditions the transects were strait; the speed and direction of the ROV were determined by the drift of the ship in the coastal current, since both, the ship and the ROV were used as a drifting system; the option to operate the vehicle actively was only used to avoide obstacles and to reach at best a distance of only approximately 30 cm to the sea-floor. As a consequence the width of the photographs in the foreground is approximately 50 cm. Deviations from this strategy resulted mainly from difficult ice- and weather conditions but also from high current velocity and local up-welling close to the sea-bed. The sea-bed images provide insights into the general composition of key species, higher systematic groups and ecological guilds. Within interdisciplinary approaches distributions of assemblages can be attributed to environmental conditions such as bathymetry, sediment characteristics, water masses and current regimes. The images also contain valuable information on how benthic species are associated to each other. Along the transects, small- to intermediate-scaled disturbances, e.g. by grounding icebergs were analysed and further impact to the entire benthic system by local succession of recolonisation was studied. This information can be used for models predicting the impact of climate change to benthic life in the Southern Ocean. All these approaches contribute to a better understanding of the fiunctioning of the benthic system and related components of the entire Antarctic marine ecosystem. Despite their scientific value the imaging methods meet concerns about the protection of sensitive Antarctic benthic systems since they are non-invasive and they also provide valuable material for education and outreach purposes.
    Keywords: ANT-XVII/3; Archive of Underwater Imaging; AUI; EASIZ; Ecology of the Antarctic Sea Ice Zone; FTS; Photo sledge; Polarstern; PS56/059-12; PS56/059-5; PS56/081-1; PS56/082-1; PS56/083-1; PS56/084-1; PS56/094-1; PS56/107-1; PS56/111-2; PS56/111-26; PS56/111-4; PS56/125-1; PS56/126-1; PS56/127-1; PS56/154-1; PS56/171-1; PS56/171-2; PS56/171-4; PS56/197-1; PS56 EASIZ III; Remote operated vehicle SPRINT 103; ROVS; Scotia Sea; Weddell Sea
    Type: Dataset
    Format: application/zip, 20 datasets
    Location Call Number Expected Availability
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