ALBERT

All Library Books, journals and Electronic Records Telegrafenberg

Your email was sent successfully. Check your inbox.

An error occurred while sending the email. Please try again.

Proceed reservation?

Export
Filter
  • PANGAEA  (422,904)
Collection
Keywords
Language
Years
  • 1
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Löwemark, Ludvig (2001): Biogenic traces as palaeoceanographic indicators in Late Quaternary sediments from the SW Iberian margin. Berichte-Reports, Institut für Geowissenschaften, Universität Kiel, 14, 138 pp, https://doi.org/10.2312/reports-ifg.2001.14
    Publication Date: 2024-06-06
    Description: Bioturbation in marine sediments has basically two aspects of interest for palaeo-environmental studies. First, the traces left by the burrowing organisms reflect the prevailing environmental conditions at the seafloor and thus can be used to reconstruct the ecologic and palaeoceanographic situation. Traces have the advantage over other proxies of practically always being preserved in situ. Secondly, for high- resolution stratigraphy, bioturbation is a nuisance due to the stirring and mixing processes that destroy the stratigraphic record. In order to evaluate the applicability of biogenic traces as palaeoenvironmental indicators, a number of gravity cores from the Portuguese continental slope, covering the period from the last glacial to the present were investigated through X-ray radiographs. In addition, physical and chemical parameters were determined to define the environmental niche in each core interval. A number of traces could be recognized, the most important being: Thalassinoides, Planolites, Zoophycos, Chondrites, Scolicia, Palaeophycus, Phycosiphon and the generally pyritized traces Trichichnus and Mycellia. The shifts between the different ichnofabrics agree strikingly well with the variations in ocean circulation caused by the changing climate. On the upper and middle slope, variations in current intensity and oxygenation of the Mediterranean Outflow Water were responsible for shifts in the ichnofabric. Larger traces such as Planolites and Thalassinoides dominated in coarse, well oxygenated intervals, while small traces such as Chondrites and Trichichnus dominated in fine grained, poorly oxygenated intervals. In contrast, on the lower slope where calm steady sedimentation conditions prevail, changes in sedimentation rate and nutrient flux have controlled variations in the distribution of larger traces such as Planolites, Thalassinoides, and Palaeophycus. Additionally, distinct layers of abundant Chondrites correspond to Heinrich events 1, 2, and 4, and are interpreted as a response to incursions of nutrient rich, oxygen depleted Antarctic waters during phases of reduced thermohaline circulation. The results clearly show that not one single factor but a combination of several factors is necessary to explain the changes in ichnofabric. Furthermore, large variations in the extent and type of bioturbation and tiering between different settings clearly show that a more detailed knowledge of the factors governing bioturbation is necessary if we shall fully comprehend how proxy records are disturbed. A first attempt to automatize a part of the recognition and quantification of the ichnofabric was performed using the DIAna image analysis program on digitized X-ray radiographs. The results show that enhanced abundance of pyritized microburrows appears to be coupled to organic rich sediments deposited under dysoxic conditions. Coarse grained sediments inhibit the formation of pyritized burrows. However, the smallest changes in program settings controlling the grey scale threshold and the sensitivity resulted in large shifts in the number of detected burrows. Therefore, this method can only be considered to be semi-quantitative. Through AMS-^C dating of sample pairs from the Zoophycos spreiten and the surrounding host sediment, age reversals of up to 3,320 years could be demonstrated for the first time. The spreiten material is always several thousands of years younger than the surrounding host sediment. Together with detailed X-ray radiograph studies this shows that the trace maker collects the material on the seafloor, and then transports it downwards up to more than one meter in to the underlying sediment where it is deposited in distinct structures termed spreiten. This clearly shows that age reversals of several thousands of years can be expected whenever Zoophycos is unknowingly sampled. These results also render the hitherto proposed ethological models proposed for Zoophycos as largely implausible. Therefore, a combination of detritus feeding, short time caching, and hibernation possibly combined also with gardening, is suggested here as an explanation for this complicated burrow.
    Keywords: GIK/IfG; Gravity corer (Kiel type); Gravity corer (Russian type); Institute for Geosciences, Christian Albrechts University, Kiel; M39/1; M39/1_08-3; M39/1_16-3; M39/1_22-4; M39/1_29-4; M39/1_29-7; M39/1_29-8; M39/1_36-2; M39/1_58-2; M39008-3; M39016-3; M39022-4; M39029-4; M39029-7; M39029-8; M39036-2; M39058-2; Meteor (1986); PO200-10-21-1; PO200-10-28-2; POS200/10; POS200/10_21-1; POS200/10_28-2; Poseidon; RGC; SL
    Type: Dataset
    Format: application/zip, 23 datasets
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 2
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Alonso-Garcia, Montserrat; Sierro, Francisco Javier; Flores, José-Abel (2011): Arctic front shifts in the subpolar North Atlantic during the Mid-Pleistocene (800–400 ka) and their implications for ocean circulation. Palaeogeography, Palaeoclimatology, Palaeoecology, 311(3-4), 268-280, https://doi.org/10.1016/j.palaeo.2011.09.004
    Publication Date: 2024-06-06
    Description: Surface water conditions at the Integrated Ocean Drilling Program (IODP) Site U1314 (Southern Gardar Drift, 56° 21.8' N, 27° 53.3' W, 2820 m depth) were inferred using planktic foraminifer assemblages between Marine Isotope Stage (MIS) 19 and 11 (ca. 800-400 ka). Factor analysis of the planktic foraminifer assemblages suggests that the assemblage was controlled by three factors. The first factor (which explained 49% of the variance) is dominated by transitional and subpolar species and points to warm and salty surface water conditions (Atlantic water). The second factor (37%) is dominated by Neogloboquadrina pachyderma sin and has been associated with the presence of cold and low saline surface waters (Arctic water). Finally, the third factor (9%), linked to a significant presence of Turborotalita quinqueloba, reflects the closeness of the Arctic front (the boundary between Atlantic and Arctic water). The position of the Arctic and Polar fronts has been estimated across the glacial-interglacial cycles studied according to planktic foraminifer abundances from Site U1314 (and their factor analysis) combined with a synthesis of planktic foraminifer and diatom data from other North Atlantic sites. Regarding at the migrations of the Arctic front and the surface water masses distribution across each climatic cycle we determined five phases of development. Furthermore, deep ocean circulation changes observed in glacial-interglacial cycles have been associated with each phase. The high abundance of transitional-subpolar foraminifers (above 65% at Site U1314) during the early interglacial phase indicated that the Arctic front position and surface water masses distribution were similar to present conditions. During the late interglacial phase, N. pachyderma sin and T. quinqueloba slightly increased indicating that winter sea ice slightly expanded southwestwards whereas the ice volume remained stable or was still decreasing. N. pachyderma sin increased rapidly (above 65% at Site U1314) at the first phase of glacial periods indicating the expansion of the Arctic waters in the western subpolar North Atlantic. During the second phase of glacial periods the transitional-subpolar assemblage throve again in the central subpolar North Atlantic associated with strong warming events that followed ice-rafting events. The third phase of glacial periods corresponds to full glacial conditions in which N. pachyderma sin dominated the assemblage for the whole subpolar North Atlantic. This division in phases may be applied to the last four climatic cycles.
    Keywords: 306-U1314; COMPCORE; Composite Core; Exp306; Integrated Ocean Drilling Program / International Ocean Discovery Program; IODP; Joides Resolution; North Atlantic; North Atlantic Climate 2
    Type: Dataset
    Format: application/zip, 3 datasets
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 3
    Publication Date: 2024-06-06
    Keywords: Gravity corer (Kiel type); PO200-10-15-1; POS200/10; POS200/10_15-1; Poseidon; SL
    Type: Dataset
    Format: unknown
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 4
    Publication Date: 2024-06-06
    Keywords: Gravity corer (Kiel type); POS200/10; POS200/10_35-1; Poseidon; SL
    Type: Dataset
    Format: unknown
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 5
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Abrantes, Fatima F; Cermeño, Pedro; Lopes, Cristina; Romero, Oscar E; Matos, Lelia; van Iperen, J; Rufino, Marta M; Magalhães, Vitor H (2016): Diatoms Si uptake capacity drives carbon export in coastal upwelling systems. Biogeosciences, 13(14), 4099-4109, https://doi.org/10.5194/bg-13-4099-2016
    Publication Date: 2024-06-06
    Description: Coastal upwelling systems account for approximately half of global ocean primary production and contribute disproportionately to biologically driven carbon sequestration. Diatoms, silica-precipitating microalgae, constitute the dominant phytoplankton in these productive regions, and their abundance and assemblage composition in the sedimentary record is considered one of the best proxies for primary production. The study of the sedimentary diatom abundance (SDA) and total organic carbon content (TOC) in the five most important coastal upwelling systems of the modern ocean (Iberia-Canary, Benguela, Peru-Humboldt, California and Somalia-Oman) reveals a global-scale positive relationship between diatom production and organic carbon burial. The analysis of SDA in conjunction with environmental variables of coastal upwelling systems such as upwelling strength, satellite-derived net primary production and surface water nutrient concentrations shows different relations between SDA and primary production on the regional scale. At the global-scale, SDA appears modulated by the capacity of diatoms to take up silicic acid, which ultimately sets an upper limit to global export production in these ocean regions.
    Keywords: 116-VB24; 120-VB28; 123-VB31; 124-VB32; 1316-KS01; 1318-KS03; 1324-KS9; 1325-KS10; 1327-KS12; 1331-KS16; 1335-KS20; 1340-KS25; 1343-KC03; 1361-KC25; 1363-KC27; 1365-KC29; 1366-KC30; 1368-KC32; 1369-KC33; 165-VB73; 167-VB75; 168-VB76; 170-VB78; 172-VB80; 174-VB82; 1937-TG70; 1938-TG71; 1939-TG72; 1940-TG79; 215-VB123; 218-VB126; 219-VB127; 221-VB129; 224-VB132; 226-VB134; 2393-SO7529; 242-VB150; 244-VB152; 246-VB154; 248-VB156; 249-VB157; 252-VB160; 254-VB162; 256-VB164; 261; 264; 266; 267; 268; 273-LV01; 274; 276-LV04; 277-LV05; 278-LV06; 280; 280-LV08; 282-LV10; 285; 286; 2861-SO7536; 287; 287-LV15; 290; 291; 293; 295; 297; 298; 300; 301; 302; 304; 305; 310; 313; 314; 317; 317-LV45; 318; 326-LV54; 338-LV66; 339-LV67; 341-LV69; 343-LV71; 345-LV73; 347-LV75; 349-LV77; 351-LV79; 369-LV97; 386-LV114; 387-LV115; 388-LV116; 389-LV117; 393-LV121; 395-LV123; 397-LV125; 415-LV143; 426-LV154; 445-LV167B; 451-LV172; 453-LV174; 455-LV176; 457-LV178; 458-LV179; 698-FM03; 700-FM05; 702-FM07; 703-FM08; 704-FM09; 706-FM11; 708-FM13; 709-FM14; Agadir Canyon; Almeida Carvalho; Angola Benguela Front; Angola Diapir Field; Arabian Sea; Area/locality; AT8408; AT8408-17; AT9009; AT9009-2GC; Atlantis II (1963); Basis of event; BC; BCR; Box corer; Box corer (Reineck); BX307; BX325; BX902; BX903; BX904; BX905; BX906; BX907; BX908; BX915; BX917; BX919; BX921; BX923; BX924; BX925; BX929; CALYPSO; Calypso Corer; Campaign of event; Canary Islands; CD17; CD17-11; CD17-14; CD17-18; CD17-23; CD17-25; CD17-27; CD17-28; CD17-30; CD17-33; CD17-34; Charles Darwin; CHIPAL; CONDOR-Ia; Core; CORE; Date/Time of event; DEPTH, sediment/rock; Diatoms, total valves, per unit sediment dry mass; Eastern Equatorial Pacific; Elevation of event; Event label; EW9504-16; FAEGAS_IV; FD75-3; FD75-3-14; FD75-3-15; FD75-3-16; FFC; Free fall corer; GC; Genesis III, RR9702A; GeoB11002-1; GeoB11003-2; GeoB11010-1; GeoB11013-1; GeoB11014-1; GeoB11017-1; GeoB11033-1; GeoB11039-1; GeoB11041-1; GeoB11042-1; GeoB11043-1; GeoB1703-3; GeoB1704-1; GeoB1705-2; GeoB1707-2; GeoB1709-3; GeoB1711-6; GeoB1712-1; GeoB1713-5; GeoB1713-6; GeoB1715-1; GeoB1716-3; GeoB1718-1; GeoB1719-4; GeoB1720-4; GeoB1721-4; GeoB1721-5; GeoB1722-3; GeoB1724-2; GeoB1726-1; GeoB1728-3; GeoB1729-1; GeoB2304-1; GeoB2305-1; GeoB2307-1; GeoB2308-1; GeoB2309-1; GeoB3303-1; GeoB3311-2; GeoB3349-4; GeoB3355-4; GeoB3357-1; GeoB3359-1; GeoB3365-1; GeoB3373-1; GeoB3374-1; GeoB3376-2; GeoB3601-1; GeoB3602-1; GeoB3603-1; GeoB3604-4; GeoB3605-1; GeoB3606-2; GeoB3608-1; GeoB4025-3; GeoB4026-1; GeoB4038-2; GeoB4040-2; GeoB4057-2; GeoB4202-1; GeoB4204-1; GeoB4205-1; GeoB4206-2; GeoB4207-1; GeoB4208-1; GeoB4209-1; GeoB4210-2; GeoB4211-1; GeoB4212-3; GeoB4213-1; GeoB4214-3; GeoB4215-1; GeoB4216-1; GeoB4217-1; GeoB4217-5; GeoB4223-1; GeoB4225-3; GeoB4226-1; GeoB4227-1; GeoB4228-1; GeoB4229-1; GeoB4230-1; GeoB4232-1; GeoB4233-2; GeoB4234-1; GeoB4235-1; GeoB4236-2; GeoB4237-1; GeoB4238-2; GeoB4239-1; GeoB4301-1; GeoB4911-2; GeoB4914-5; GeoB4918-3; GeoB7103-3; GeoB7106-1; GeoB7108-3; GeoB7112-1; GeoB7114-1; GeoB7115-1; GeoB7116-1; GeoB7118-1; GeoB7119-1; GeoB7121-1; GeoB7122-2; GeoB7123-1; GeoB7127-1; GeoB7129-1; GeoB7130-1; GeoB7131-1; GeoB7133-1; GeoB7134-1; GeoB7135-1; GeoB7137-2; GeoB7138-1; GeoB7142-2; GeoB7144-1; GeoB7148-1; GeoB7150-1; GeoB7152-1; GeoB7153-1; GeoB7154-2; GeoB7155-1; GeoB7156-1; GeoB7157-1; GeoB7158-1; GeoB7159-1; GeoB7920-3; GeoB7922-3; GeoB7926-1; GeoB7927-1; GeoB7928-3; GeoB7932-2; GeoB8301-5; GeoB8303-5; GeoB8305-1; GeoB8306-1; GeoB8307-5; GeoB8310-1; GeoB8311-1; GeoB8315-5; GeoB8316-1; GeoB8317-1; GeoB8318-1; GeoB8402-1; GeoB8403-1; GeoB8404-2; GeoB84100-2; GeoB8419-2; GeoB8421-4; GeoB8422-1; GeoB8424-3; GeoB8448-2; GeoB8449-1; GeoB8450-1; GeoB8451-1; GeoB8452-1; GeoB8455-1; GeoB8469-3; GeoB8470-1; GeoB8481-2; GeoB8482-2; GeoB8483-2; GeoB8484-3; GeoB8498-2; GeoB8499-1; GeoB8501-1; GeoB8502-4; GeoB8503-1; GeoB8504-1; GeoB8505-1; GeoB8506-1; GeoB8507-1; GeoB8508-1; GeoB8509-3; GeoB8517-1; GeoB8519-1; GeoB8520-3; GeoB8521-3; GeoB8522-3; GeoB8524-3; GeoB8531-1; GeoB8532-1; GeoB8533-1; GeoB8601-1; GeoB8604-3; GeoB8606-2; GeoB8607-2; GeoB8608-4; GeoB8614-2; GeoB8620-2; GeoB8625-1; GeoB8626-2; GeoB8627-2; GeoB8630-8; GeoB8631-8; GeoB9501-4; GeoB9502-5; GeoB9506-3; GeoB9508-4; GeoB9510-3; GeoB9512-4; GeoB9513-4; GeoB9515-2; GeoB9516-4; GeoB9517-5; GeoB9519-6; GeoB9520-4; GeoB9525-5; GeoB9528-1; GeoB9529-1; GeoB9532-1; GeoB9533-3; Giant box corer; GKG; Gravity corer; Gravity corer (Kiel type); IMAGES I; Indian Ocean; KOL; L6-85-NC; L6-85-NC-03; L6-85-NC-07; Latitude of event; Le Noroit; LIVRA; Longitude of event; M20/2; M34/1; M37/1; M38/1; M39/1; M39/1_02-2; M39/1_03-2; M39/1_04-2; M39/1_04-4; M39/1_17-4; M39/1_22-1; M39/1_22-3; M39/1_23-3; M39/1_29-6; M39/1_35-3; M39/1_58-1; M39/1_59-2; M39/1_72-1; M39002-2; M39022-1; M39058-1; M39059-2; M39072-1; M41/1; M53/1; M57/1; M57/2; M58/1; M58/2; M65/1; M9907-39PC; M9907-40; MARFLUX; Marge Ibérique; Marion Dufresne (1995); Mauritania Canyon; MD101; MD952040; MD95-2040; MD952042; MD95-2042; ME0005A; ME0005A-04MC4; ME0005A-07MC3; ME0005A-08MC3; ME0005A-14MC2; ME0005A-15MC6; ME0005A-20MC8; ME0005A-21MC3; ME0005A-25MC5; ME0005A-29MC2; ME0005A-35MC1; ME0005A-38MC2; ME0005A-41MC2; Melville; Meteor (1986); Method comment; MG2; MG4; MUC; MultiCorer; Namibia Continental Margin; Namibia continental slope; NEMO; North Atlantic; Northern Cape Basin; off Angola; off Chile; off Gabun; off Kunene; off Northwest Africa; off Portugal; Pacific; PARCA; Particle camera; PC; Peru Continental Margin; Piston corer; Piston corer (Kiel type); PO200-10-15-1; PO200-10-28-1; Porto Seamount; POS200/10; POS200/10_13-1; POS200/10_14-1; POS200/10_15-1; POS200/10_22-1; POS200/10_27-2; POS200/10_28-1; POS200/10_32-2; POS200/10_4-2; POS200/10_8-2; POS200/10_9-1; POS342; Poseidon; PROBOSWA; PUCK; RC27; RC27-09; RC27-12; RC27-14; RC27-23; RC27-58; RC27-61; RC27-62; Robert Conrad; Roger A. Revelle; RR9702A; RR9702A-01MC4; RR9702A-04MC5; RR9702A-06MC; RR9702A-08MC; RR9702A-10MC2; RR9702A-12MC; RR9702A-14MC; RR9702A-20MC; RR9702A-22MC; RR9702A-24MC3; RR9702A-25MC; RR9702A-27MC; RR9702A-29MC; RR9702A-31MC; RR9702A-34MC; RR9702A-39MC; RR9702A-42MC1; RR9702A-44MC; RR9702A-46MC1; RR9702A-48MC4; RR9702A-50MC4; RR9702A-52MC3; RR9702A-62MC3; RR9702A-64MC1; RR9702A-66MC1; RR9702A-68MC3; RR9702A-70MC3; RR9702A-72MC3; RR9702A-74MC2; RR9702A-77MC2; RR9702A-80MC7; RR9702A-82MC; RR9702A-83MC; Sample ID; Samuel P. Lee; SL; SO101; SO101/3_3-1; SO102/1; SO102/2; SO11GK; SO156/1; SO156/2; SO156/3; SO75/3; SO75/3_11KG; SO75/3_13KG; SO75/3_15KG; SO75/3_25KG; SO75/3_30KG; SO75/3_9KG; SO83; SO83_11GK; SO83_9GK; SO86; SO9GK; Sonne; South-East Pacific; Southern Cape Basin; southern Congo fan; South Pacific Ocean; TT063-12; TT29-18PC; TT29-22ACREF; TT31-011GCREF; TT34-1GC; TT39-11ACREF; TT39-15REF; TT39-17PC; TT39-18ACREF; TT39-19REF; TT39-21AC; TT39-22PC; TT39-23PC; TT39-5ACREF; TT39-AC12REF; TT68-18AC; TT68-PC27REF; TT90-33GC; VH96/1-3; VH96/1-4; VIABOA; Victor Hensen; W7610B; W7610B-07; W7706; W7706-01; W7706-02; W7706-03; W7706-04; W7706-10; W7706-11a; W7706-11b; W7706-12; W7706-13; W7706-14; W7706-15; W7706-20; W7706-21; W7706-24; W7706-30; W7706-32; W7706-33a; W7706-33b; W7706-34; W7706-35a; W7706-35b; W7706-36; W7706-37; W7706-38; W7706-39; W7706-40; W7706-41; W7706-42; W7706-43; W7706-44; W7706-45; W7706-47; W7706-49; W7706-5; W7706-50; W7706-57; W7706-61; W7706-62; W7706-63K; W7706-64; W7706-68GC; W7706-69; W7706-7; W7706-70GC; W7706-71GC; W7706-72; W7706-73; W7706-74; W7706-76a; W7706-76b; W7706-8; W7706-83; W7706-84; W7706-87; W7706-88; W7706-89; W7706-9; W7905A; W7905A-106; W7905A-109; W7905A-160; W7905A-163; W7905A-167; W7905A-173; W7905A-174; W8209B; W8209B-01; W8209B-19; W8306A; W8306A-01; W8508AA; W8508AA-09; W8709A; W8709A-13; W8809A; W8809A-11GC; W8809A-19GC; W8809A-26GC; W8809A-29GC; W8809A-51GC; W8909_ABC; W8909A; W8909A-24GC; W8909A-31GC; W8909A-48GC; W8909A-57GC; W8909A-7GC; W9205-1GC; Walvis Bay/Namibia; Walvis Ridge; Wecoma; Y6706;
    Type: Dataset
    Format: text/tab-separated-values, 2232 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 6
    Publication Date: 2024-06-06
    Keywords: Age, 14C AMS; Age, 14C calibrated; Age, comment; Age, dated; Age, dated standard deviation; Age, maximum/old; Age, minimum/young; Calendar age; Calendar age, maximum/old; Calendar age, minimum/young; Calendar age, standard deviation; Comment; Dead Sea Basin, Israel; DEPTH, sediment/rock; DRILL; Drilling/drill rig; DSDDP_5017-1; DSEn; Ein Gedi; Event label; GeoForschungszentrum Potsdam; GFZ; Laboratory code/label; Sample code/label; Sample comment
    Type: Dataset
    Format: text/tab-separated-values, 286 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 7
    Publication Date: 2024-06-06
    Keywords: Age model; DEPTH, sediment/rock; Gravity corer (Kiel type); PO200-10-28-1; POS200/10; POS200/10_28-1; Poseidon; SL
    Type: Dataset
    Format: text/tab-separated-values, 7 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 8
    Publication Date: 2024-06-06
    Keywords: AGE; DEPTH, sediment/rock; Export production; Globigerina bulloides, δ18O; Gravity corer (Kiel type); Modern analog technique (MAT), SIMMAX28, non-distance-weighted; Neogloboquadrina pachyderma sinistral; PO200-10-28-1; POS200/10; POS200/10_28-1; Poseidon; Sea surface temperature, summer; SL
    Type: Dataset
    Format: text/tab-separated-values, 108 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 9
    Publication Date: 2024-06-06
    Keywords: Age, 14C calibrated; Age, 14C milieu/reservoir corrected (-400 yr); Age, dated; Age, dated material; Age, dated standard error; Analytical method; DEPTH, sediment/rock; Gravity corer (Kiel type); PO200-10-21-1; POS200/10; POS200/10_21-1; Poseidon; Reference/source; SL
    Type: Dataset
    Format: text/tab-separated-values, 27 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 10
    Publication Date: 2024-06-06
    Keywords: Age, 14C calibrated; Age, 14C milieu/reservoir corrected (-400 yr); Age, dated; Age, dated standard error; Analytical method; DEPTH, sediment/rock; Gravity corer (Kiel type); PO200-10-28-2; POS200/10; POS200/10_28-2; Poseidon; Reference/source; SL
    Type: Dataset
    Format: text/tab-separated-values, 34 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
Close ⊗
This website uses cookies and the analysis tool Matomo. More information can be found here...