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  • 1
    Publication Date: 2024-05-24
    Description: In the marine realm, microorganisms are responsible for the bulk of primary production, thereby sustaining marine life across all trophic levels. Longhurst provinces have distinct microbial fingerprints; however, little is known about how microbial diversity and primary productivity change at finer spatial scales. Here, we sampled the Atlantic Ocean from south to north (~50°S–50°N), every ~0.5° latitude. We conducted measurements of primary productivity, chlorophyll-a and relative abundance of 16S and 18S rRNA genes, alongside analyses of the physicochemical and hydrographic environment. We analysed the diversity of autotrophs, mixotrophs and heterotrophs, and noted distinct patterns among these guilds across provinces with high and low chlorophyll-a conditions. Eukaryotic autotrophs and prokaryotic heterotrophs showed a shared inter-province diversity pattern, distinct from the diversity pattern shared by mixotrophs, cyanobacteria and eukaryotic heterotrophs. Additionally, we calculated samplewise productivity-specific length scales, the potential horizontal displacement of microbial communities by surface currents to an intrinsic biological rate (here, specific primary productivity). This scale provides key context for our trophically disaggregated diversity analysis that we could relate to underlying oceanographic features. We integrate this element to provide more nuanced insights into the mosaic-like nature of microbial provincialism, linking diversity patterns to oceanographic transport through primary production.
    Repository Name: EPIC Alfred Wegener Institut
    Type: Article , peerRev
    Format: application/pdf
    Location Call Number Expected Availability
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  • 2
    Publication Date: 2024-05-23
    Description: Isotropic three-dimensional (3-D) inversion has become a standard tool in the interpretation of magnetotelluric (MT) data. 3-D anisotropic inversion codes are under development, yet the number of unknowns increases by a factor of 6 rendering the problem extremely ill-posed. The presence of anisotropy is usually inferred from (i) spurious sequences of conductive and resistive bodies or (ii) comparison with two-dimensional anisotropic modelling approaches. Here, we investigate the 3-D structure of the Gawler Craton down to ∼250 km depth using 282 sites of the AusLAMP array located in the southern half of South Australia. Inversions of the MT impedance as phase tensors and real and imaginary parts result in diverging structures at depths 〉 70 km. We demonstrate that a unifying model that explains all data types similarly well is suggestive of an anisotropic resistivity structure at the base of the Gawler Craton lithosphere at depths of 120–210 km. Depth location and orientation of the anisotropy agree well with results from the analysis of seismic receiver functions. We suggest that electric anisotropy in the Gawler Craton is a result of lattice-preferred orientation of olivine crystals and metasomatic processes with macroscopic preferential orientation. Our results illustrate that inversion of phase tensor data is superior for the direct imaging of anisotropic resistivity contrasts in otherwise isotropic resistivity models; inversion models obtained with impedances may miss such structures. “Comparable” overall RMS misfits are often meaningless when comparing inversion results for various data types since sensitivities differ between data types. Reliable inversion results consistent with the entire data set can only be recovered if data fits are assessed systematically for all data representations. We also discuss the influence of error settings for phase tensors on the inversion. Our study also revealed that, if persistent across large areas, (i) parallel orientation of phase tensor major axes, (ii) constantly high phase tensor maximum phases or (iii) diverging directions of phase tensor major axes and induction arrows are suggestive of anisotropic structures and corresponding hypotheses should be evaluated.
    Type: info:eu-repo/semantics/article
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  • 3
    Publication Date: 2024-05-23
    Keywords: 49RY9407_2; 49RY9407_2/100-1; 49RY9407_2/100-2; 49RY9407_2/101-1; 49RY9407_2/101-2; 49RY9407_2/101-3; 49RY9407_2/102-1; 49RY9407_2/102-2; 49RY9407_2/103-1; 49RY9407_2/103-2; 49RY9407_2/104-1; 49RY9407_2/104-2; 49RY9407_2/104-3; 49RY9407_2/105-1; 49RY9407_2/54-1; 49RY9407_2/54-2; 49RY9407_2/55-1; 49RY9407_2/55-2; 49RY9407_2/56-1; 49RY9407_2/56-2; 49RY9407_2/56-3; 49RY9407_2/57-1; 49RY9407_2/57-2; 49RY9407_2/57-3; 49RY9407_2/57-4; 49RY9407_2/58-1; 49RY9407_2/58-2; 49RY9407_2/58-3; 49RY9407_2/59-1; 49RY9407_2/59-2; 49RY9407_2/60-1; 49RY9407_2/60-2; 49RY9407_2/61-1; 49RY9407_2/61-2; 49RY9407_2/61-3; 49RY9407_2/62-1; 49RY9407_2/62-2; 49RY9407_2/63-1; 49RY9407_2/63-2; 49RY9407_2/64-1; 49RY9407_2/65-1; 49RY9407_2/66-1; 49RY9407_2/66-2; 49RY9407_2/67-1; 49RY9407_2/67-2; 49RY9407_2/68-1; 49RY9407_2/68-2; 49RY9407_2/69-1; 49RY9407_2/69-2; 49RY9407_2/70-1; 49RY9407_2/70-2; 49RY9407_2/71-1; 49RY9407_2/71-2; 49RY9407_2/72-1; 49RY9407_2/72-2; 49RY9407_2/73-1; 49RY9407_2/73-2; 49RY9407_2/73-3; 49RY9407_2/74-1; 49RY9407_2/74-2; 49RY9407_2/75-1; 49RY9407_2/75-2; 49RY9407_2/76-1; 49RY9407_2/76-2; 49RY9407_2/77-1; 49RY9407_2/77-2; 49RY9407_2/77-3; 49RY9407_2/78-1; 49RY9407_2/78-2; 49RY9407_2/79-1; 49RY9407_2/79-2; 49RY9407_2/79-3; 49RY9407_2/80-1; 49RY9407_2/80-2; 49RY9407_2/81-1; 49RY9407_2/81-2; 49RY9407_2/81-3; 49RY9407_2/82-1; 49RY9407_2/82-2; 49RY9407_2/83-1; 49RY9407_2/84-1; 49RY9407_2/85-1; 49RY9407_2/85-2; 49RY9407_2/86-1; 49RY9407_2/87-1; 49RY9407_2/88-1; 49RY9407_2/88-2; 49RY9407_2/89-1; 49RY9407_2/89-2; 49RY9407_2/89-3; 49RY9407_2/90-1; 49RY9407_2/90-2; 49RY9407_2/91-1; 49RY9407_2/91-2; 49RY9407_2/92-1; 49RY9407_2/92-2; 49RY9407_2/92-3; 49RY9407_2/92-4; 49RY9407_2/93-1; 49RY9407_2/93-2; 49RY9407_2/93-3; 49RY9407_2/94-1; 49RY9407_2/94-2; 49RY9407_2/95-1; 49RY9407_2/95-2; 49RY9407_2/96-1; 49RY9407_2/96-2; 49RY9407_2/97-1; 49RY9407_2/97-2; 49RY9407_2/97-3; 49RY9407_2/98-1; 49RY9407_2/98-2; 49RY9407_2/99-1; 49RY9407_2/99-2; Bottle number; Calculated; Carbon, inorganic, dissolved; Carbon-14; Carbon-14, standard deviation; CTD; CTD/Rosette; CTD-RO; CTD with attached oxygen sensor; Date/Time of event; DEPTH, water; Elevation of event; Event label; Freon-11 (trichorofluoromethane); Freon-12 (dichlorodifluoromethane); Helium; Helium, standard deviation; Latitude of event; Longitude of event; Neon; Neon, standard deviation; Nitrate; Nitrite; Oxygen; Phosphate; Pressure, water; Reversing thermometer; Ryofu Maru; Salinity; Salinometer, inductive; Sample ID; Silicate; Temperature, water; Temperature, water, potential; Tritium; Tritium, standard deviation; WOCE; World Ocean Circulation Experiment; δ Helium-3; δ Helium-3, standard deviation
    Type: Dataset
    Format: text/tab-separated-values, 24574 data points
    Location Call Number Expected Availability
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  • 4
    Publication Date: 2024-05-23
    Description: The high surface productivity triggered by nutrient-rich Benguela upwelled waters results in significant enrichment of organic carbon in the sub-surface waters due to enhanced mineralization in the water column and benthic fluxes. Hence, microbial oxygen-consuming processes are promoted, driving oxygen depletion that favours trace gases i.e. methane (CH4) and nitrous oxide (N2O) production at relatively shallow depths. Also, gas-rich subsurface waters are transported towards the surface waters during upwelling, enhancing trace gas sea-air fluxes. Within the EVAR project, we investigate the variability of these fluxes on seasonal and shorter timescales to understand the intensity of the Benguela upwelling system as the source of these greenhouse gases relative to the atmosphere. The data might serve as a base for projections under a changing climate. The fieldwork took place during the cruise SO283 (March 19th – May 25th, 2021) onboard the R/V SONNE from and to Emden (Germany). The main area of the sampling was the Namibian shelf between 18°S and 25°S which is suggested to represent some regional hotspots of trace gas emissions to the atmosphere, in particular in the vicinity of the upwelling cells. Over 260 discrete water samples were collected from the Niskin bottles at different stations for the determination of the concentrations of CH4, N2O, and dissolved inorganic carbon (DIC). 200ml seawater samples were fixed with 200 µL of saturated HgCl2 solution straight after sampling and trace gas was quantified in return. Dissolved CH4 and N2O were measured by an in-house designed purge and trap system with a dynamic headspace method back on land. In brief, a subsample is purged with an inert ultrapure carrier gas of Helium, and the gases are focused on a cryo-trap operated at about -120°C. The volatile compounds are desorbed by rapid heating and analyzed by a gas chromatograph (GC; Agilent 7890B), equipped with capillary columns and a Deans Switch, which directed the components to the flamenionization detector for CH4 detection and electron capture detector ECD for N2O detection. To explore the carbonate system Dissolved Inorganic Carbon (DIC) was measured in the institute. About 5.00 ml of each fixed discrete sample was acidified by 10 % phosphoric acid, resulting in release of inorganic carbon content of the sample. An automated infra-red inorganic carbon analyzer (AIRICA, Marianda, Tulpenweg 28, D-24145 Kiel) equipped with an infrared detector LICOR 7000 (LI-COR Environmental – GmbH, Homburg, Germany) was used to quantify DIC. A 3-fold measurement of the pH was also carried out in 120 ml of discrete samples directly after sampling using the HydroFIA pH system (4H Jena Engineering, 24148 Kiel, Germany). We calculated the average pH value of the corresponding sample after Müller and Rehder (2018) and corresponding total alkalinity and pCO2 after Dickson et al. (2007).
    Keywords: Benguela Upwelling System; Biogeochemical cycle of Trace Gas; Carbon dioxide; CTD/Rosette; CTD-RO; DEPTH, water; EVAR; Event label; LATITUDE; LONGITUDE; Methane; Namibia; Nitrous oxide; oxygen deficient zones; SO283; SO283_28-1; SO283_29-1; SO283_30-1; SO283_31-1; SO283_32-1; SO283_36-1; SO283_37-1; SO283_38-1; SO283_39-1; SO283_43-1; SO283_47-2; SO283_49-1; SO283_50-1; SO283_51-1; SO283_52-1; SO283_53-1; SO283_57-2; SO283_58-2; SO283_59-1; SO283_60-1; SO283_62-1; SO283_64-1; SO283_66-1; SO283_68-1; SO283_69-1; SO283_73-1; SO283_75-1; SO283_77-1; Sonne_2; South Atlantic Ocean; The Benguela Upwelling System under climate change – Effects of VARiability in physical forcing on carbon and oxygen budgets
    Type: Dataset
    Format: text/tab-separated-values, 778 data points
    Location Call Number Expected Availability
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  • 5
    Publication Date: 2024-05-23
    Description: The high surface productivity triggered by nutrient-rich Benguela upwelled waters results in significant enrichment of organic carbon in the sub-surface waters due to enhanced mineralization in the water column and benthic fluxes. Hence, microbial oxygen-consuming processes are promoted, driving oxygen depletion that favours trace gas i.e. methane (CH4) and nitrous oxide (N2O) production at relatively shallow depths. Also, gas-rich subsurface waters are transported towards sea surface during upwelling, enhancing trace gas sea-air fluxes. Within the EVAR project, we investigate the variability of these fluxes on seasonal and shorter timescales to understand the intensity of the Benguela upwelling system as the source of the greenhouse gases relative to the atmosphere. The data might serve as a base for projections under a changing climate. The fieldwork took place during the cruise MSM105 (January 11th – February 23rd, 2022) onboard the R/V MARIA S. MERIAN, which encompassed close-coastal and open ocean regions between Mindelo (Cape Verde) and Walvis Bay. The working area of the cruise MSM105 was the Namibian shelf between 18°S and 27°S which are suggested to represent some regional hotspots of trace gas emissions to the atmosphere, in particular in the vicinity of the upwelling cells. Over 260 discrete water samples were collected from the Niskin bottles at different stations for the determination of dissolved CH4, N2O, and dissolved inorganic carbon (DIC). 200ml seawater samples were fixed with 200 µL of saturated HgCl2 solution straight after sampling and dissolved trace gas was quantified in return. The dissolved gases were measured by an in-house designed purge and trap system with a dynamic headspace method back on land. In brief, a subsample is purged with an inert ultrapure carrier gas of Helium, and the gases are focused on a cryo-trap operated at about -120°C. The volatile compounds are desorbed by rapid heating and analyzed by a gas chromatograph (GC; Agilent 7890B), equipped with capillary columns and a Deans Switch, which directed the components to the flamenionization detector for CH4 detection and electron capture detector ECD for N2O detection. To explore the carbonate system, Dissolved Inorganic Carbon (DIC) was measured on board by an automated infra-red inorganic carbon analyzer (AIRICA, Marianda, Tulpenweg 28, D-24145 Kiel) equipped with an infrared detector LICOR 7000 (LI-COR Environmental – GmbH, Homburg, Germany. A 3-fold measurement of the pH was also carried out in 120 ml of discrete samples directly after sampling using the HydroFIA pH system (4H Jena Engineering, 24148 Kiel, Germany). We calculated the average pH value of the corresponding sample after Müller and Rehder (2018) and corresponding total alkalinity and pCO2 after Dickson et al. (2007).
    Keywords: Benguela Upwelling System; Biogeochemical cycle of Trace Gas; BUSUC II; Carbon dioxide; Cast number; CTD/Rosette; CTD-RO; DEPTH, water; EVAR; Event label; LATITUDE; LONGITUDE; Maria S. Merian; Methane; MSM105; MSM105_10-1; MSM105_12-1; MSM105_13-3; MSM105_14-1; MSM105_15-1; MSM105_17-1; MSM105_18-1; MSM105_23-1; MSM105_24-1; MSM105_25-1; MSM105_33-1; MSM105_36-1; MSM105_38-1; MSM105_4-1; MSM105_54-1; MSM105_57-1; MSM105_60-1; MSM105_6-1; MSM105_62-1; MSM105_64-1; MSM105_66-1; MSM105_68-1; MSM105_69-1; MSM105_72-1; MSM105_73-1; MSM105_74-2; MSM105_75-2; MSM105_76-2; Namibia; Nitrous oxide; oxygen deficient zones; South Atlantic Ocean; Station label; The Benguela Upwelling System under climate change – Effects of VARiability in physical forcing on carbon and oxygen budgets
    Type: Dataset
    Format: text/tab-separated-values, 1310 data points
    Location Call Number Expected Availability
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  • 6
    Publication Date: 2024-05-23
    Keywords: 06MT18_1; 06MT18_1/558-1; 06MT18_1/559-1; 06MT18_1/560-1; 06MT18_1/561-1; 06MT18_1/562-1; 06MT18_1/563-1; 06MT18_1/564-1; 06MT18_1/565-1; 06MT18_1/567-1; 06MT18_1/568-1; 06MT18_1/569-1; 06MT18_1/570-1; 06MT18_1/571-1; 06MT18_1/573-1; 06MT18_1/574-1; 06MT18_1/575-1; 06MT18_1/576-1; 06MT18_1/577-2; 06MT18_1/578-1; 06MT18_1/579-1; 06MT18_1/580-1; 06MT18_1/581-1; 06MT18_1/582-1; 06MT18_1/583-1; 06MT18_1/584-1; 06MT18_1/585-1; 06MT18_1/586-1; 06MT18_1/587-1; 06MT18_1/588-1; 06MT18_1/589-1; 06MT18_1/590-1; 06MT18_1/591-1; 06MT18_1/596-1; 06MT18_1/597-1; 06MT18_1/598-1; 06MT18_1/599-1; 06MT18_1/600-1; 06MT18_1/601-1; 06MT18_1/602-1; 06MT18_1/603-1; 06MT18_1/604-1; 06MT18_1/605-1; 06MT18_1/607-1; 06MT18_1/608-1; 06MT18_1/609-1; 06MT18_1/610-1; 06MT18_1/611-1; 06MT18_1/612-1; 06MT18_1/613-1; 06MT18_1/615-1; 06MT18_1/616-1; 06MT18_1/617-1; 06MT18_1/618-1; 06MT18_1/618-2; 06MT18_1/619-1; 06MT18_1/620-1; 06MT18_1/621-1; 06MT18_1/622-1; Alkalinity, total; Bottle number; Carbon, inorganic, dissolved; Carbon-14; Carbon-14, standard deviation; CTD; CTD/Rosette; CTD-RO; Date/Time of event; DEPTH, water; Elevation of event; Event label; Freon-11 (trichorofluoromethane); Freon-12 (dichlorodifluoromethane); Helium; Helium, standard deviation; Latitude of event; Longitude of event; M18/1; M18/1_558-1; M18/1_559-1; M18/1_560-1; M18/1_561-1; M18/1_562-1; M18/1_563-1; M18/1_564-1; M18/1_565-1; M18/1_567-1; M18/1_568-1; M18/1_569-1; M18/1_570-1; M18/1_571-1; M18/1_573-1; M18/1_574-1; M18/1_575-1; M18/1_576-1; M18/1_577-2; M18/1_578-1; M18/1_579-1; M18/1_580-1; M18/1_581-1; M18/1_582-1; M18/1_583-1; M18/1_584-1; M18/1_585-1; M18/1_586-1; M18/1_587-1; M18/1_588-1; M18/1_589-1; M18/1_590-1; M18/1_591-1; M18/1_596-1; M18/1_597-1; M18/1_598-1; M18/1_599-1; M18/1_600-1; M18/1_601-1; M18/1_602-1; M18/1_603-1; M18/1_604-1; M18/1_605-1; M18/1_607-1; M18/1_608-1; M18/1_609-1; M18/1_610-1; M18/1_611-1; M18/1_612-1; M18/1_613-1; M18/1_615-1; M18/1_616-1; M18/1_617-1; M18/1_618-1; M18/1_618-2; M18/1_619-1; M18/1_620-1; M18/1_621-1; M18/1_622-1; Meteor (1986); Nitrate; Nitrite; Oxygen; Phosphate; Pressure, water; Reversing thermometer; Salinity; Salinometer, inductive; Sample ID; Silicate; Temperature, water; Temperature, water, potential; Tritium; Tritium, standard deviation; WOCE; World Ocean Circulation Experiment; δ Helium-3; δ Helium-3, standard deviation
    Type: Dataset
    Format: text/tab-separated-values, 19556 data points
    Location Call Number Expected Availability
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  • 7
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    PANGAEA
    In:  Alfred Wegener Institute, Helmholtz Centre for Polar and Marine Research, Bremerhaven
    Publication Date: 2024-05-23
    Keywords: 06AQANTXV_4/100-1; 06AQANTXV_4/10-1; 06AQANTXV_4/101-1; 06AQANTXV_4/102-1; 06AQANTXV_4/103-1; 06AQANTXV_4/104-1; 06AQANTXV_4/105-1; 06AQANTXV_4/106-1; 06AQANTXV_4/107-2; 06AQANTXV_4/107-4; 06AQANTXV_4/108-1; 06AQANTXV_4/109-1; 06AQANTXV_4/1-1; 06AQANTXV_4/110-1; 06AQANTXV_4/111-1; 06AQANTXV_4/112-1; 06AQANTXV_4/113-1; 06AQANTXV_4/114-2; 06AQANTXV_4/114-4; 06AQANTXV_4/115-1; 06AQANTXV_4/11-6; 06AQANTXV_4/116-1; 06AQANTXV_4/117-1; 06AQANTXV_4/118-1; 06AQANTXV_4/119-1; 06AQANTXV_4/120-1; 06AQANTXV_4/12-1; 06AQANTXV_4/121-1; 06AQANTXV_4/122-2; 06AQANTXV_4/123-1; 06AQANTXV_4/124-1; 06AQANTXV_4/125-1; 06AQANTXV_4/126-1; 06AQANTXV_4/127-1; 06AQANTXV_4/128-1; 06AQANTXV_4/129-1; 06AQANTXV_4/130-1; 06AQANTXV_4/13-1; 06AQANTXV_4/131-1; 06AQANTXV_4/132-1; 06AQANTXV_4/133-1; 06AQANTXV_4/134-1; 06AQANTXV_4/135-1; 06AQANTXV_4/136-1; 06AQANTXV_4/14-1; 06AQANTXV_4/15-1; 06AQANTXV_4/15-2; 06AQANTXV_4/16-1; 06AQANTXV_4/17-1; 06AQANTXV_4/18-1; 06AQANTXV_4/19-1; 06AQANTXV_4/20-1; 06AQANTXV_4/20-2; 06AQANTXV_4/21-1; 06AQANTXV_4/22-1; 06AQANTXV_4/23-1; 06AQANTXV_4/24-1; 06AQANTXV_4/25-1; 06AQANTXV_4/26-1; 06AQANTXV_4/27-1; 06AQANTXV_4/28-1; 06AQANTXV_4/29-1; 06AQANTXV_4/30-1; 06AQANTXV_4/30-2; 06AQANTXV_4/31-1; 06AQANTXV_4/3-2; 06AQANTXV_4/32-1; 06AQANTXV_4/33-1; 06AQANTXV_4/34-1; 06AQANTXV_4/35-1; 06AQANTXV_4/36-1; 06AQANTXV_4/37-1; 06AQANTXV_4/38-1; 06AQANTXV_4/39-1; 06AQANTXV_4/40-1; 06AQANTXV_4/41-1; 06AQANTXV_4/42-1; 06AQANTXV_4/4-3; 06AQANTXV_4/43-1; 06AQANTXV_4/44-1; 06AQANTXV_4/45-1; 06AQANTXV_4/46-1; 06AQANTXV_4/47-2; 06AQANTXV_4/48-1; 06AQANTXV_4/49-1; 06AQANTXV_4/50-1; 06AQANTXV_4/5-1; 06AQANTXV_4/51-1; 06AQANTXV_4/52-1; 06AQANTXV_4/53-1; 06AQANTXV_4/54-1; 06AQANTXV_4/55-1; 06AQANTXV_4/57-1; 06AQANTXV_4/58-1; 06AQANTXV_4/59-1; 06AQANTXV_4/60-1; 06AQANTXV_4/6-1; 06AQANTXV_4/61-1; 06AQANTXV_4/62-1; 06AQANTXV_4/63-1; 06AQANTXV_4/65-1; 06AQANTXV_4/66-1; 06AQANTXV_4/67-1; 06AQANTXV_4/68-1; 06AQANTXV_4/68-2; 06AQANTXV_4/69-1; 06AQANTXV_4/70-1; 06AQANTXV_4/71-1; 06AQANTXV_4/72-1; 06AQANTXV_4/7-3; 06AQANTXV_4/73-1; 06AQANTXV_4/74-1; 06AQANTXV_4/75-1; 06AQANTXV_4/76-1; 06AQANTXV_4/77-1; 06AQANTXV_4/78-2; 06AQANTXV_4/78-4; 06AQANTXV_4/79-1; 06AQANTXV_4/80-1; 06AQANTXV_4/8-1; 06AQANTXV_4/81-1; 06AQANTXV_4/82-1; 06AQANTXV_4/83-1; 06AQANTXV_4/84-1; 06AQANTXV_4/85-1; 06AQANTXV_4/86-1; 06AQANTXV_4/87-1; 06AQANTXV_4/88-2; 06AQANTXV_4/88-4; 06AQANTXV_4/89-1; 06AQANTXV_4/90-1; 06AQANTXV_4/9-1; 06AQANTXV_4/91-1; 06AQANTXV_4/92-1; 06AQANTXV_4/93-1; 06AQANTXV_4/94-1; 06AQANTXV_4/96-1; 06AQANTXV_4/97-1; 06AQANTXV_4/98-1; 06AQANTXV_4/99-2; 06AQANTXV_4/99-4; 06AQANTXV_4/99-5; ANT-XV/4; Bottle number; Carbon dioxide; CTD; CTD/Rosette; CTD-RO; Date/Time of event; DEPTH, water; Elevation of event; Event label; Freon-11 (trichorofluoromethane); Freon-113; Freon-12 (dichlorodifluoromethane); Helium; Helium, standard deviation; Latitude of event; Longitude of event; Neon; Neon, standard deviation; Nitrate; Nitrite; Oxygen; Phosphate; Polarstern; Pressure, water; PS49/001-1; PS49/003-2; PS49/004-3; PS49/005-1; PS49/006-1; PS49/007-3; PS49/008-1; PS49/009-1; PS49/010-1; PS49/011-6; PS49/012-1; PS49/013-1; PS49/014-1; PS49/015-1; PS49/015-2; PS49/016-1; PS49/017-1; PS49/018-1; PS49/019-1; PS49/020-1; PS49/020-2; PS49/021-1; PS49/022-1; PS49/023-1; PS49/024-1; PS49/025-1; PS49/026-1; PS49/027-1; PS49/028-1; PS49/029-1; PS49/030-1; PS49/030-2; PS49/031-1; PS49/032-1; PS49/033-1; PS49/034-1; PS49/035-1; PS49/036-1; PS49/037-1; PS49/038-1; PS49/039-1; PS49/040-1; PS49/041-1; PS49/042-1; PS49/043-1; PS49/044-1; PS49/045-1; PS49/046-1; PS49/047-2; PS49/048-1; PS49/049-1; PS49/050-1; PS49/051-1; PS49/052-1; PS49/053-1; PS49/054-1; PS49/055-1; PS49/057-1; PS49/058-1; PS49/059-1; PS49/060-1; PS49/061-1; PS49/062-1; PS49/063-1; PS49/065-1; PS49/066-1; PS49/067-1; PS49/068-1; PS49/068-2; PS49/069-1; PS49/070-1; PS49/071-1; PS49/072-1; PS49/073-1; PS49/074-1; PS49/075-1; PS49/076-1; PS49/077-1; PS49/078-2; PS49/078-4; PS49/079-1; PS49/080-1; PS49/081-1; PS49/082-1; PS49/083-1; PS49/084-1; PS49/085-1; PS49/086-1; PS49/087-1; PS49/088-2; PS49/088-4; PS49/089-1; PS49/090-1; PS49/091-1; PS49/092-1; PS49/093-1; PS49/094-1; PS49/096-1; PS49/097-1; PS49/098-1; PS49/099-2; PS49/099-4; PS49/099-5; PS49/100-1; PS49/101-1; PS49/102-1; PS49/103-1; PS49/104-1; PS49/105-1; PS49/106-1; PS49/107-2; PS49/107-4; PS49/108-1; PS49/109-1; PS49/110-1; PS49/111-1; PS49/112-1; PS49/113-1; PS49/114-2; PS49/114-4; PS49/115-1; PS49/116-1; PS49/117-1; PS49/118-1; PS49/119-1; PS49/120-1; PS49/121-1; PS49/122-2; PS49/123-1; PS49/124-1; PS49/125-1; PS49/126-1; PS49/127-1; PS49/128-1; PS49/129-1; PS49/130-1; PS49/131-1; PS49/132-1; PS49/133-1; PS49/134-1; PS49/135-1; PS49/136-1; PS49 06AQANTXV_4; Salinity; Salinometer, inductive; Silicate; Temperature, water; Temperature, water, potential; Tritium; Tritium, standard deviation; WOCE; World Ocean Circulation Experiment; δ Helium-3; δ Helium-3, standard deviation
    Type: Dataset
    Format: text/tab-separated-values, 39988 data points
    Location Call Number Expected Availability
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  • 8
    Publication Date: 2024-05-23
    Keywords: 06MT15_3; 06MT15_3/122-1; 06MT15_3/122-2; 06MT15_3/123-1; 06MT15_3/124-1; 06MT15_3/125-1; 06MT15_3/126-1; 06MT15_3/127-1; 06MT15_3/127-2; 06MT15_3/128-1; 06MT15_3/129-1; 06MT15_3/130-1; 06MT15_3/131-1; 06MT15_3/132-1; 06MT15_3/132-2; 06MT15_3/133-1; 06MT15_3/133-2; 06MT15_3/134-1; 06MT15_3/134-2; 06MT15_3/135-1; 06MT15_3/135-2; 06MT15_3/136-1; 06MT15_3/136-2; 06MT15_3/137-1; 06MT15_3/137-2; 06MT15_3/138-1; 06MT15_3/138-2; 06MT15_3/139-1; 06MT15_3/139-2; 06MT15_3/140-1; 06MT15_3/140-2; 06MT15_3/141-1; 06MT15_3/141-2; 06MT15_3/142-1; 06MT15_3/142-2; 06MT15_3/143-1; 06MT15_3/143-2; 06MT15_3/144-1; 06MT15_3/144-2; 06MT15_3/145-1; 06MT15_3/145-2; 06MT15_3/146-1; 06MT15_3/146-2; 06MT15_3/147-1; 06MT15_3/147-2; 06MT15_3/148-1; 06MT15_3/148-2; 06MT15_3/149-1; 06MT15_3/149-2; 06MT15_3/150-1; 06MT15_3/150-2; 06MT15_3/151-1; 06MT15_3/151-2; 06MT15_3/152-1; 06MT15_3/152-2; 06MT15_3/153-1; 06MT15_3/153-2; 06MT15_3/154-1; 06MT15_3/154-2; 06MT15_3/155-1; 06MT15_3/155-2; 06MT15_3/156-1; 06MT15_3/156-2; 06MT15_3/157-1; 06MT15_3/157-2; 06MT15_3/158-1; 06MT15_3/158-2; 06MT15_3/159-1; 06MT15_3/159-2; 06MT15_3/160-1; 06MT15_3/160-2; 06MT15_3/161-1; 06MT15_3/161-2; 06MT15_3/162-1; 06MT15_3/162-2; 06MT15_3/163-1; 06MT15_3/163-2; 06MT15_3/164-1; 06MT15_3/164-2; 06MT15_3/165-1; 06MT15_3/165-2; 06MT15_3/166-1; 06MT15_3/166-2; 06MT15_3/167-1; 06MT15_3/167-2; 06MT15_3/168-1; 06MT15_3/169-1; 06MT15_3/170-1; 06MT15_3/171-1; 06MT15_3/172-1; 06MT15_3/173-1; 06MT15_3/174-1; 06MT15_3/174-2; 06MT15_3/175-1; 06MT15_3/175-2; 06MT15_3/176-1; 06MT15_3/176-2; 06MT15_3/177-1; 06MT15_3/177-2; 06MT15_3/178-1; 06MT15_3/179-1; 06MT15_3/180-1; 06MT15_3/181-1; 06MT15_3/182-1; 06MT15_3/183-1; 06MT15_3/184-1; 06MT15_3/184-2; 06MT15_3/185-1; 06MT15_3/185-2; 06MT15_3/186-1; 06MT15_3/186-2; 06MT15_3/187-1; 06MT15_3/187-2; 06MT15_3/188-1; 06MT15_3/188-2; 06MT15_3/189-1; 06MT15_3/189-2; 06MT15_3/190-1; 06MT15_3/190-2; 06MT15_3/191-1; 06MT15_3/191-2; 06MT15_3/192-1; 06MT15_3/192-2; 06MT15_3/193-1; 06MT15_3/193-2; 06MT15_3/194-1; 06MT15_3/194-2; 06MT15_3/195-1; 06MT15_3/195-2; 06MT15_3/196-1; 06MT15_3/196-2; 06MT15_3/197-1; 06MT15_3/197-2; 06MT15_3/198-1; 06MT15_3/198-2; 06MT15_3/199-1; 06MT15_3/199-2; 06MT15_3/200-1; 06MT15_3/200-2; 06MT15_3/201-1; 06MT15_3/201-2; 06MT15_3/202-1; 06MT15_3/202-2; 06MT15_3/203-1; 06MT15_3/203-2; 06MT15_3/204-1; 06MT15_3/204-2; 06MT15_3/205-1; 06MT15_3/205-2; 06MT15_3/206-1; 06MT15_3/206-2; 06MT15_3/207-1; 06MT15_3/207-2; 06MT15_3/208-1; 06MT15_3/208-2; 06MT15_3/209-1; 06MT15_3/209-2; 06MT15_3/210-1; 06MT15_3/210-2; 06MT15_3/211-1; 06MT15_3/211-2; 06MT15_3/212-1; 06MT15_3/212-2; 06MT15_3/213-1; 06MT15_3/213-2; 06MT15_3/214-1; 06MT15_3/214-2; 06MT15_3/215-1; 06MT15_3/215-2; 06MT15_3/216-1; 06MT15_3/217-1; 06MT15_3/218-1; 06MT15_3/219-1; 06MT15_3/220-1; 06MT15_3/221-1; 06MT15_3/222-1; 06MT15_3/223-1; 06MT15_3/224-1; 06MT15_3/224-2; 06MT15_3/225-1; 06MT15_3/225-2; 06MT15_3/225-3; 06MT15_3/226-1; 06MT15_3/226-2; 06MT15_3/227-1; 06MT15_3/227-2; 06MT15_3/228-1; 06MT15_3/228-2; 06MT15_3/229-1; 06MT15_3/229-2; 06MT15_3/230-1; 06MT15_3/230-2; 06MT15_3/231-1; 06MT15_3/231-2; 06MT15_3/232-1; 06MT15_3/232-2; Bottle number; Carbon, inorganic, dissolved; Carbon-14; Carbon-14, standard deviation; Carbon dioxide, partial pressure; CTD; CTD/Rosette; CTD-RO; CTD with attached oxygen sensor; Date/Time of event; DEPTH, water; Elevation of event; Event label; Freon-11 (trichorofluoromethane); Freon-113; Freon-12 (dichlorodifluoromethane); Helium; Helium, standard deviation; Latitude of event; Longitude of event; M15/3; M15/3_122-1; M15/3_122-2; M15/3_123-1; M15/3_124-1; M15/3_125-1; M15/3_126-1; M15/3_127-1; M15/3_127-2; M15/3_128-1; M15/3_129-1; M15/3_130-1; M15/3_131-1; M15/3_132-1; M15/3_132-2; M15/3_133-1; M15/3_133-2; M15/3_134-1; M15/3_134-2; M15/3_135-1; M15/3_135-2; M15/3_136-1; M15/3_136-2; M15/3_137-1; M15/3_137-2; M15/3_138-1; M15/3_138-2; M15/3_139-1; M15/3_139-2; M15/3_140-1; M15/3_140-2; M15/3_141-1; M15/3_141-2; M15/3_142-1; M15/3_142-2; M15/3_143-1; M15/3_143-2; M15/3_144-1; M15/3_144-2; M15/3_145-1; M15/3_145-2; M15/3_146-1; M15/3_146-2; M15/3_147-1; M15/3_147-2; M15/3_148-1; M15/3_148-2; M15/3_149-1; M15/3_149-2; M15/3_150-1; M15/3_150-2; M15/3_151-1; M15/3_151-2; M15/3_152-1; M15/3_152-2; M15/3_153-1; M15/3_153-2; M15/3_154-1; M15/3_154-2; M15/3_155-1; M15/3_155-2; M15/3_156-1; M15/3_156-2; M15/3_157-1; M15/3_157-2; M15/3_158-1; M15/3_158-2; M15/3_159-1; M15/3_159-2; M15/3_160-1; M15/3_160-2; M15/3_161-1; M15/3_161-2; M15/3_162-1; M15/3_162-2; M15/3_163-1; M15/3_163-2; M15/3_164-1; M15/3_164-2; M15/3_165-1; M15/3_165-2; M15/3_166-1; M15/3_166-2; M15/3_167-1; M15/3_167-2; M15/3_168-1; M15/3_169-1; M15/3_170-1; M15/3_171-1; M15/3_172-1; M15/3_173-1; M15/3_174-1; M15/3_174-2; M15/3_175-1; M15/3_175-2; M15/3_176-1; M15/3_176-2; M15/3_177-1; M15/3_177-2; M15/3_178-1; M15/3_179-1; M15/3_180-1; M15/3_181-1; M15/3_182-1; M15/3_183-1; M15/3_184-1; M15/3_184-2; M15/3_185-1; M15/3_185-2; M15/3_186-1; M15/3_186-2; M15/3_187-1; M15/3_187-2; M15/3_188-1; M15/3_188-2; M15/3_189-1; M15/3_189-2; M15/3_190-1; M15/3_190-2; M15/3_191-1; M15/3_191-2; M15/3_192-1; M15/3_192-2; M15/3_193-1; M15/3_193-2; M15/3_194-1; M15/3_194-2; M15/3_195-1; M15/3_195-2; M15/3_196-1; M15/3_196-2; M15/3_197-1; M15/3_197-2; M15/3_198-1; M15/3_198-2; M15/3_199-1; M15/3_199-2; M15/3_200-1; M15/3_200-2; M15/3_201-1; M15/3_201-2; M15/3_202-1; M15/3_202-2; M15/3_203-1; M15/3_203-2; M15/3_204-1; M15/3_204-2; M15/3_205-1; M15/3_205-2; M15/3_206-1; M15/3_206-2; M15/3_207-1; M15/3_207-2; M15/3_208-1; M15/3_208-2; M15/3_209-1; M15/3_209-2; M15/3_210-1; M15/3_210-2; M15/3_211-1; M15/3_211-2; M15/3_212-1; M15/3_212-2; M15/3_213-1; M15/3_213-2; M15/3_214-1; M15/3_214-2; M15/3_215-1; M15/3_215-2; M15/3_216-1; M15/3_217-1; M15/3_218-1; M15/3_219-1; M15/3_220-1; M15/3_221-1; M15/3_222-1; M15/3_223-1; M15/3_224-1; M15/3_224-2; M15/3_225-1; M15/3_225-2; M15/3_225-3; M15/3_226-1; M15/3_226-2; M15/3_227-1; M15/3_227-2; M15/3_228-1; M15/3_228-2; M15/3_229-1; M15/3_229-2; M15/3_230-1; M15/3_230-2; M15/3_231-1; M15/3_231-2; M15/3_232-1; M15/3_232-2; Meteor (1986); Neon; Neon, standard deviation; Nitrate; Nitrite; Oxygen; Phosphate; Pressure, water; Salinity; Salinometer, inductive; Sample ID; Silicate; Temperature, water; Temperature, water, potential; Tetrachloromethane; Tritium; Tritium, standard deviation; WOCE; World Ocean Circulation Experiment; δ Helium-3; δ Helium-3, standard deviation
    Type: Dataset
    Format: text/tab-separated-values, 51439 data points
    Location Call Number Expected Availability
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  • 9
    Publication Date: 2024-05-23
    Keywords: 06MT22_5; 06MT22_5/100-1; 06MT22_5/10-1; 06MT22_5/10-2; 06MT22_5/1-1; 06MT22_5/11-1; 06MT22_5/11-2; 06MT22_5/12-1; 06MT22_5/12-2; 06MT22_5/13-1; 06MT22_5/13-2; 06MT22_5/14-1; 06MT22_5/14-2; 06MT22_5/15-1; 06MT22_5/16-1; 06MT22_5/17-1; 06MT22_5/18-1; 06MT22_5/19-1; 06MT22_5/20-1; 06MT22_5/2-1; 06MT22_5/21-1; 06MT22_5/22-1; 06MT22_5/23-1; 06MT22_5/24-1; 06MT22_5/25-1; 06MT22_5/26-1; 06MT22_5/27-1; 06MT22_5/27-2; 06MT22_5/28-1; 06MT22_5/28-2; 06MT22_5/29-1; 06MT22_5/29-2; 06MT22_5/30-1; 06MT22_5/30-2; 06MT22_5/3-1; 06MT22_5/31-1; 06MT22_5/31-2; 06MT22_5/3-2; 06MT22_5/32-1; 06MT22_5/32-2; 06MT22_5/33-1; 06MT22_5/33-2; 06MT22_5/34-1; 06MT22_5/35-1; 06MT22_5/36-1; 06MT22_5/36-2; 06MT22_5/37-1; 06MT22_5/37-2; 06MT22_5/38-1; 06MT22_5/38-2; 06MT22_5/39-1; 06MT22_5/39-2; 06MT22_5/40-1; 06MT22_5/40-2; 06MT22_5/40-3; 06MT22_5/4-1; 06MT22_5/41-1; 06MT22_5/41-2; 06MT22_5/4-2; 06MT22_5/42-1; 06MT22_5/42-2; 06MT22_5/43-1; 06MT22_5/43-2; 06MT22_5/44-1; 06MT22_5/44-2; 06MT22_5/45-1; 06MT22_5/45-2; 06MT22_5/46-1; 06MT22_5/46-2; 06MT22_5/47-1; 06MT22_5/47-2; 06MT22_5/47-3; 06MT22_5/48-1; 06MT22_5/48-2; 06MT22_5/49-1; 06MT22_5/49-2; 06MT22_5/50-1; 06MT22_5/50-2; 06MT22_5/5-1; 06MT22_5/51-1; 06MT22_5/51-2; 06MT22_5/5-2; 06MT22_5/52-1; 06MT22_5/53-1; 06MT22_5/53-2; 06MT22_5/54-1; 06MT22_5/55-1; 06MT22_5/56-1; 06MT22_5/57-1; 06MT22_5/57-2; 06MT22_5/58-1; 06MT22_5/58-2; 06MT22_5/59-1; 06MT22_5/59-2; 06MT22_5/60-1; 06MT22_5/60-2; 06MT22_5/6-1; 06MT22_5/61-1; 06MT22_5/61-2; 06MT22_5/6-2; 06MT22_5/620-1; 06MT22_5/62-1; 06MT22_5/62-2; 06MT22_5/622-1; 06MT22_5/623-1; 06MT22_5/624-1; 06MT22_5/625-1; 06MT22_5/626-1; 06MT22_5/627-1; 06MT22_5/628-1; 06MT22_5/629-1; 06MT22_5/630-1; 06MT22_5/63-1; 06MT22_5/631-1; 06MT22_5/63-2; 06MT22_5/632-1; 06MT22_5/64-1; 06MT22_5/64-2; 06MT22_5/65-1; 06MT22_5/65-2; 06MT22_5/65-3; 06MT22_5/66-1; 06MT22_5/66-2; 06MT22_5/67-1; 06MT22_5/67-2; 06MT22_5/68-1; 06MT22_5/68-2; 06MT22_5/69-1; 06MT22_5/69-2; 06MT22_5/70-1; 06MT22_5/70-2; 06MT22_5/7-1; 06MT22_5/71-1; 06MT22_5/71-2; 06MT22_5/7-2; 06MT22_5/72-1; 06MT22_5/72-2; 06MT22_5/73-1; 06MT22_5/73-2; 06MT22_5/74-1; 06MT22_5/75-1; 06MT22_5/75-2; 06MT22_5/76-1; 06MT22_5/76-2; 06MT22_5/77-1; 06MT22_5/78-1; 06MT22_5/78-2; 06MT22_5/79-1; 06MT22_5/79-2; 06MT22_5/80-1; 06MT22_5/80-2; 06MT22_5/8-1; 06MT22_5/81-1; 06MT22_5/81-2; 06MT22_5/8-2; 06MT22_5/82-1; 06MT22_5/82-2; 06MT22_5/83-1; 06MT22_5/83-2; 06MT22_5/84-1; 06MT22_5/84-2; 06MT22_5/85-1; 06MT22_5/85-2; 06MT22_5/86-1; 06MT22_5/86-2; 06MT22_5/87-1; 06MT22_5/87-2; 06MT22_5/88-1; 06MT22_5/88-2; 06MT22_5/89-1; 06MT22_5/89-2; 06MT22_5/90-1; 06MT22_5/90-2; 06MT22_5/9-1; 06MT22_5/91-1; 06MT22_5/91-2; 06MT22_5/92-1; 06MT22_5/92-2; 06MT22_5/93-1; 06MT22_5/93-2; 06MT22_5/94-1; 06MT22_5/95-1; 06MT22_5/96-1; 06MT22_5/97-1; 06MT22_5/98-1; 06MT22_5/99-1; Bottle number; Carbon, inorganic, dissolved; CTD; CTD/Rosette; CTD-RO; Date/Time of event; DEPTH, water; Elevation of event; Event label; Freon-11 (trichorofluoromethane); Freon-12 (dichlorodifluoromethane); Helium; Helium, standard deviation; Latitude of event; Longitude of event; M22/5; M22/5_100-1; M22/5_10-1; M22/5_10-2; M22/5_1-1; M22/5_11-1; M22/5_11-2; M22/5_12-1; M22/5_12-2; M22/5_13-1; M22/5_13-2; M22/5_14-1; M22/5_14-2; M22/5_15-1; M22/5_16-1; M22/5_17-1; M22/5_18-1; M22/5_19-1; M22/5_20-1; M22/5_2-1; M22/5_21-1; M22/5_22-1; M22/5_23-1; M22/5_24-1; M22/5_25-1; M22/5_26-1; M22/5_27-1; M22/5_27-2; M22/5_28-1; M22/5_28-2; M22/5_29-1; M22/5_29-2; M22/5_30-1; M22/5_30-2; M22/5_3-1; M22/5_31-1; M22/5_31-2; M22/5_3-2; M22/5_32-1; M22/5_32-2; M22/5_33-1; M22/5_33-2; M22/5_34-1; M22/5_35-1; M22/5_36-1; M22/5_36-2; M22/5_37-1; M22/5_37-2; M22/5_38-1; M22/5_38-2; M22/5_39-1; M22/5_39-2; M22/5_40-1; M22/5_40-2; M22/5_40-3; M22/5_4-1; M22/5_41-1; M22/5_41-2; M22/5_4-2; M22/5_42-1; M22/5_42-2; M22/5_43-1; M22/5_43-2; M22/5_44-1; M22/5_44-2; M22/5_45-1; M22/5_45-2; M22/5_46-1; M22/5_46-2; M22/5_47-1; M22/5_47-2; M22/5_47-3; M22/5_48-1; M22/5_48-2; M22/5_49-1; M22/5_49-2; M22/5_50-1; M22/5_50-2; M22/5_5-1; M22/5_51-1; M22/5_51-2; M22/5_5-2; M22/5_52-1; M22/5_53-1; M22/5_53-2; M22/5_54-1; M22/5_55-1; M22/5_56-1; M22/5_57-1; M22/5_57-2; M22/5_58-1; M22/5_58-2; M22/5_59-1; M22/5_59-2; M22/5_60-1; M22/5_60-2; M22/5_6-1; M22/5_61-1; M22/5_61-2; M22/5_6-2; M22/5_620-1; M22/5_62-1; M22/5_62-2; M22/5_622-1; M22/5_623-1; M22/5_624-1; M22/5_625-1; M22/5_626-1; M22/5_627-1; M22/5_628-1; M22/5_629-1; M22/5_630-1; M22/5_63-1; M22/5_631-1; M22/5_63-2; M22/5_632-1; M22/5_64-1; M22/5_64-2; M22/5_65-1; M22/5_65-2; M22/5_65-3; M22/5_66-1; M22/5_66-2; M22/5_67-1; M22/5_67-2; M22/5_68-1; M22/5_68-2; M22/5_69-1; M22/5_69-2; M22/5_70-1; M22/5_70-2; M22/5_7-1; M22/5_71-1; M22/5_71-2; M22/5_7-2; M22/5_72-1; M22/5_72-2; M22/5_73-1; M22/5_73-2; M22/5_74-1; M22/5_75-1; M22/5_75-2; M22/5_76-1; M22/5_76-2; M22/5_77-1; M22/5_78-1; M22/5_78-2; M22/5_79-1; M22/5_79-2; M22/5_80-1; M22/5_80-2; M22/5_8-1; M22/5_81-1; M22/5_81-2; M22/5_8-2; M22/5_82-1; M22/5_82-2; M22/5_83-1; M22/5_83-2; M22/5_84-1; M22/5_84-2; M22/5_85-1; M22/5_85-2; M22/5_86-1; M22/5_86-2; M22/5_87-1; M22/5_87-2; M22/5_88-1; M22/5_88-2; M22/5_89-1; M22/5_89-2; M22/5_90-1; M22/5_90-2; M22/5_9-1; M22/5_91-1; M22/5_91-2; M22/5_92-1; M22/5_92-2; M22/5_93-1; M22/5_93-2; M22/5_94-1; M22/5_95-1; M22/5_96-1; M22/5_97-1; M22/5_98-1; M22/5_99-1; Meteor (1986); Neon; Neon, standard deviation; Oxygen; Phosphate; Pressure, water; Salinity; Salinometer, inductive; Silicate; Temperature, water; Temperature, water, potential; Tetrachloromethane; Tritium; WOCE; World Ocean Circulation Experiment; δ Helium-3; δ Helium-3, standard deviation
    Type: Dataset
    Format: text/tab-separated-values, 36476 data points
    Location Call Number Expected Availability
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  • 10
    Publication Date: 2024-05-23
    Keywords: 06MT39_3; 06MT39_3/274-1; 06MT39_3/275-2; 06MT39_3/276-1; 06MT39_3/277-1; 06MT39_3/278-1; 06MT39_3/279-1; 06MT39_3/280-1; 06MT39_3/281-1; 06MT39_3/282-1; 06MT39_3/283-1; 06MT39_3/283-2; 06MT39_3/284-1; 06MT39_3/285-1; 06MT39_3/286-1; 06MT39_3/287-1; 06MT39_3/288-1; 06MT39_3/289-2; 06MT39_3/290-1; 06MT39_3/291-1; 06MT39_3/291-2; 06MT39_3/292-2; 06MT39_3/293-2; 06MT39_3/293-3; 06MT39_3/294-2; 06MT39_3/294-3; 06MT39_3/295-1; 06MT39_3/296-1; 06MT39_3/297-1; 06MT39_3/298-5; 06MT39_3/299-1; 06MT39_3/300-1; 06MT39_3/301-1; 06MT39_3/302-1; 06MT39_3/302-2; 06MT39_3/303-1; 06MT39_3/304-1; 06MT39_3/305-1; 06MT39_3/306-1; 06MT39_3/307-1; 06MT39_3/308-1; 06MT39_3/309-1; 06MT39_3/310-1; 06MT39_3/311-1; 06MT39_3/312-1; 06MT39_3/313-1; 06MT39_3/314-1; 06MT39_3/315-1; 06MT39_3/316-1; 06MT39_3/317-1; 06MT39_3/317-2; 06MT39_3/318-1; 06MT39_3/318-2; 06MT39_3/319-1; 06MT39_3/320-1; 06MT39_3/320-2; 06MT39_3/320-4; 06MT39_3/321-1; 06MT39_3/322-1; 06MT39_3/322-2; 06MT39_3/323-1; 06MT39_3/323-2; 06MT39_3/324-1; 06MT39_3/324-2; 06MT39_3/325-1; 06MT39_3/325-2; 06MT39_3/326-1; 06MT39_3/326-2; 06MT39_3/327-1; 06MT39_3/328-1; 06MT39_3/329-1; 06MT39_3/330-1; 06MT39_3/331-1; 06MT39_3/332-1; 06MT39_3/333-1; 06MT39_3/334-1; 06MT39_3/335-1; 06MT39_3/336-1; 06MT39_3/337-1; 06MT39_3/338-1; Alkalinity, total; Bottle number; Carbon, inorganic, dissolved; CTD; CTD/Rosette; CTD-RO; Date/Time of event; DEPTH, water; Elevation of event; Event label; Freon-11 (trichorofluoromethane); Freon-113; Freon-12 (dichlorodifluoromethane); Helium; Helium, standard deviation; Latitude of event; Longitude of event; M39/3; M39/3_274-1; M39/3_275-2; M39/3_276-1; M39/3_277-1; M39/3_278-1; M39/3_279-1; M39/3_280-1; M39/3_281-1; M39/3_282-1; M39/3_283-1; M39/3_283-2; M39/3_284-1; M39/3_285-1; M39/3_286-1; M39/3_287-1; M39/3_288-1; M39/3_289-2; M39/3_290-1; M39/3_291-1; M39/3_291-2; M39/3_292-2; M39/3_293-2; M39/3_293-3; M39/3_294-2; M39/3_294-3; M39/3_295-1; M39/3_296-1; M39/3_297-1; M39/3_298-5; M39/3_299-1; M39/3_300-1; M39/3_301-1; M39/3_302-1; M39/3_302-2; M39/3_303-1; M39/3_304-1; M39/3_305-1; M39/3_306-1; M39/3_307-1; M39/3_308-1; M39/3_309-1; M39/3_310-1; M39/3_311-1; M39/3_312-1; M39/3_313-1; M39/3_314-1; M39/3_315-1; M39/3_316-1; M39/3_317-1; M39/3_317-2; M39/3_318-1; M39/3_318-2; M39/3_319-1; M39/3_320-1; M39/3_320-2; M39/3_320-4; M39/3_321-1; M39/3_322-1; M39/3_322-2; M39/3_323-1; M39/3_323-2; M39/3_324-1; M39/3_324-2; M39/3_325-1; M39/3_325-2; M39/3_326-1; M39/3_326-2; M39/3_327-1; M39/3_328-1; M39/3_329-1; M39/3_330-1; M39/3_331-1; M39/3_332-1; M39/3_333-1; M39/3_334-1; M39/3_335-1; M39/3_336-1; M39/3_337-1; M39/3_338-1; Meteor (1986); Neon; Neon, standard deviation; Nitrate; Oxygen; Phosphate; Pressure, water; Salinity; Salinometer, inductive; Sample ID; Silicate; Temperature, water; Temperature, water, potential; Tetrachloromethane; Tritium; Tritium, standard deviation; WOCE; World Ocean Circulation Experiment; δ Helium-3; δ Helium-3, standard deviation
    Type: Dataset
    Format: text/tab-separated-values, 24293 data points
    Location Call Number Expected Availability
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