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  • 1
    Publication Date: 2023-03-14
    Keywords: Carbon, inorganic, dissolved; Carbon, organic, particulate; Carbon/Nitrogen ratio; Carbon dioxide, partial pressure; Chlorophyll a; CTD; Date/Time of event; DEPTH, water; Environment; Event label; Latitude of event; Longitude of event; LowpHOX-II; Lowphox-II_T3; Lowphox-II_T5; Nitrate; Nitrite; Nitrogen, organic, particulate; Oxygen, dissolved; pH; Phosphate; Temperature, water
    Type: Dataset
    Format: text/tab-separated-values, 221 data points
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  • 2
    Publication Date: 2023-03-06
    Description: These data are part of the LowpHOX-2 cruise off the northern coast of Chile investigating the distribution of intact polar lipids above, through, and below the oxygen minimum zone at two stations. We report intact polar lipid concentrations in addition to a number of water column chemistry parameters. Used in a manuscript under review at Frontiers in Marine Science.
    Type: Dataset
    Format: application/zip, 2 datasets
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  • 3
    Publication Date: 2023-03-06
    Keywords: Archaeol; CTD; Date/Time of event; DEPTH, water; Diacylglyceryl carboxyhydroxymethylcholine 16:0; Diacylglyceryl carboxyhydroxymethylcholine 17:0; Diacylglyceryl carboxyhydroxymethylcholine 19:0; Diacylglyceryl carboxyhydroxymethylcholine 21:0; Diacylglyceryl carboxyhydroxymethylcholine 22:4; Diacylglyceryl carboxyhydroxymethylcholine 23:0; Diacylglyceryl carboxyhydroxymethylcholine 23:1; Diacylglyceryl carboxyhydroxymethylcholine 23:6; Diacylglyceryl carboxyhydroxymethylcholine 24:2; Diacylglyceryl carboxyhydroxymethylcholine 26:0; Diacylglyceryl carboxyhydroxymethylcholine 27:0; Diacylglyceryl carboxyhydroxymethylcholine 28:0; Diacylglyceryl carboxyhydroxymethylcholine 29:0; Diacylglyceryl carboxyhydroxymethylcholine 30:0; Diacylglyceryl carboxyhydroxymethylcholine 31:1; Diacylglyceryl carboxyhydroxymethylcholine 32:0; Diacylglyceryl carboxyhydroxymethylcholine 33:0; Diacylglyceryl carboxyhydroxymethylcholine 36:6; Diacylglyceryl carboxyhydroxymethylcholine 38:6; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 19:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 24:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 25:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 26:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 28:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 29:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 30:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 30:1; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 32:1; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 32:2; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 33:1; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 34:1; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 34:2; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 34:4; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 34:5; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 35:1; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 36:2; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 36:6; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 38:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 38:5; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 39:0; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 40:10; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 42:11; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 44:11; Diacylglyceryl hydroxymethyl-trimethyl-beta-alanine 44:12; Diacylglyceryl trimethylhomoserine 25:0; Diacylglyceryl trimethylhomoserine 26:0; Diacylglyceryl trimethylhomoserine 26:2; Diacylglyceryl trimethylhomoserine 27:0; Diacylglyceryl trimethylhomoserine 28:0; Diacylglyceryl trimethylhomoserine 28:1; Diacylglyceryl trimethylhomoserine 29:0; Diacylglyceryl trimethylhomoserine 29:1; Diacylglyceryl trimethylhomoserine 30:0; Diacylglyceryl trimethylhomoserine 30:1; Diacylglyceryl trimethylhomoserine 31:0; Diacylglyceryl trimethylhomoserine 31:1; Diacylglyceryl trimethylhomoserine 32:0; Diacylglyceryl trimethylhomoserine 32:1; Diacylglyceryl trimethylhomoserine 32:2; Diacylglyceryl trimethylhomoserine 32:3; Diacylglyceryl trimethylhomoserine 32:4; Diacylglyceryl trimethylhomoserine 33:0; Diacylglyceryl trimethylhomoserine 33:1; Diacylglyceryl trimethylhomoserine 34:0; Diacylglyceryl trimethylhomoserine 34:1; Diacylglyceryl trimethylhomoserine 34:2; Diacylglyceryl trimethylhomoserine 34:3; Diacylglyceryl trimethylhomoserine 34:4; Diacylglyceryl trimethylhomoserine 34:5; Diacylglyceryl trimethylhomoserine 34:6; Diacylglyceryl trimethylhomoserine 34:8; Diacylglyceryl trimethylhomoserine 35:0; Diacylglyceryl trimethylhomoserine 35:1; Diacylglyceryl trimethylhomoserine 36:2; Diacylglyceryl trimethylhomoserine 36:3; Diacylglyceryl trimethylhomoserine 36:4; Diacylglyceryl trimethylhomoserine 36:5; Diacylglyceryl trimethylhomoserine 36:6; Diacylglyceryl trimethylhomoserine 37:1; Diacylglyceryl trimethylhomoserine 37:2; Diacylglyceryl trimethylhomoserine 37:5; Diacylglyceryl trimethylhomoserine 37:6; Diacylglyceryl trimethylhomoserine 38:0; Diacylglyceryl trimethylhomoserine 38:1; Diacylglyceryl trimethylhomoserine 39:1; Diacylglyceryl trimethylhomoserine 40:1; Diacylglyceryl trimethylhomoserine OH-34:1; Digalactosyldiacylglycerol 28:0; Digalactosyldiacylglycerol 30:0; Digalactosyldiacylglycerol 30:2; Digalactosyldiacylglycerol 31:1; Digalactosyldiacylglycerol 32:0; Digalactosyldiacylglycerol 32:1; Digalactosyldiacylglycerol 32:2; Digalactosyldiacylglycerol 32:4; Digalactosyldiacylglycerol 32:5; Digalactosyldiacylglycerol 32:6; Digalactosyldiacylglycerol 34:0; Digalactosyldiacylglycerol 34:1; Digalactosyldiacylglycerol 34:2; Digalactosyldiacylglycerol 34:3; Digalactosyldiacylglycerol 34:4; Digalactosyldiacylglycerol 34:6; Digalactosyldiacylglycerol 34:7; Digalactosyldiacylglycerol 35:3; Digalactosyldiacylglycerol 36:0; Diglycosyl dietherglyceride 36:4; Diglycosyl dietherglyceride 37:5; Environment; Event label; Latitude of event; Longitude of event; LowpHOX-II; Lowphox-II_T3; Lowphox-II_T5; Monogalactosyldiacylglycerol 24:0; Monogalactosyldiacylglycerol 27:2; Monogalactosyldiacylglycerol 28:0; Monogalactosyldiacylglycerol 28:1; Monogalactosyldiacylglycerol 30:0; Monogalactosyldiacylglycerol 30:1; Monogalactosyldiacylglycerol 30:2; Monogalactosyldiacylglycerol 30:3; Monogalactosyldiacylglycerol 31:0; Monogalactosyldiacylglycerol 31:1; Monogalactosyldiacylglycerol 32:0; Monogalactosyldiacylglycerol 32:1; Monogalactosyldiacylglycerol 32:2; Monogalactosyldiacylglycerol 33:0; Monogalactosyldiacylglycerol 34:0; Monogalactosyldiacylglycerol 34:1; Monogalactosyldiacylglycerol 34:7; Monogalactosyldiacylglycerol 36:0; Monogalactosyldiacylglycerol 36:10; Monogalactosyldiacylglycerol 36:5; Monogalactosyldiacylglycerol 39:5; Monoglycosyl archaeol; Monoglycosyl ceramide 22:2; Monoglycosyl ceramide 25:6; Monoglycosyl ceramide 29:4; Monoglycosyl ceramide 31:4; Monoglycosyl ceramide 36:1; Monoglycosyl ceramide 37:4; Monoglycosyl ceramide 38:4; Monoglycosyl glyceroldialkylglyceroltetraether 0; Monoglycosyl glyceroldialkylglyceroltetraether 4; Monoglycosyl glyceroldialkylglyceroltetraether 5; Ornithine lipid 33:0; Ornithine lipid 33:1; Ornithine lipid 34:0; Ornithine lipid 35:1; Ornithine lipid 35:6; Ornithine lipid 36:1; Ornithine lipid 36:6; Ornithine lipid 37:1; Ornithine lipid 38:1; Ornithine lipid 38:6; Phosphatidylcholinediacylglycerol 24:0; Phosphatidylcholinediacylglycerol 26:0; Phosphatidylcholinediacylglycerol 27:0; Phosphatidylcholinediacylglycerol 28:0; Phosphatidylcholinediacylglycerol 29:0; Phosphatidylcholinediacylglycerol 29:1; Phosphatidylcholinediacylglycerol 29:2; Phosphatidylcholinediacylglycerol 30:0; Phosphatidylcholinediacylglycerol 30:1; Phosphatidylcholinediacylglycerol 30:2; Phosphatidylcholinediacylglycerol 31:0; Phosphatidylcholinediacylglycerol 31:1; Phosphatidylcholinediacylglycerol 31:2; Phosphatidylcholinediacylglycerol 32:0; Phosphatidylcholinediacylglycerol 32:1; Phosphatidylcholinediacylglycerol 32:2; Phosphatidylcholinediacylglycerol 32:6; Phosphatidylcholinediacylglycerol 33:0; Phosphatidylcholinediacylglycerol 33:1; Phosphatidylcholinediacylglycerol 33:2; Phosphatidylcholinediacylglycerol 33:5; Phosphatidylcholinediacylglycerol 33:6; Phosphatidylcholinediacylglycerol 34:1; Phosphatidylcholinediacylglycerol 34:4; Phosphatidylcholinediacylglycerol 35:0; Phosphatidylcholinediacylglycerol 35:1; Phosphatidylcholinediacylglycerol 36:1; Phosphatidylcholinediacylglycerol 36:10; Phosphatidylcholinediacylglycerol 36:3; Phosphatidylcholinediacylglycerol 36:5; Phosphatidylcholinediacylglycerol 37:6; Phosphatidylcholinediacylglycerol 38:1; Phosphatidylcholinediacylglycerol 38:2; Phosphatidylcholinediacylglycerol 38:5; Phosphatidylcholinediacylglycerol 38:6; Phosphatidylcholinediacylglycerol 39:5; Phosphatidylcholinediacylglycerol 40:10; Phosphatidylcholinediacylglycerol 40:9; Phosphatidylcholinediacylglycerol 42:0; Phosphatidylcholinediacylglycerol 42:11; Phosphatidylcholinediacylglycerol 44:12;
    Type: Dataset
    Format: text/tab-separated-values, 3223 data points
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  • 4
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    PANGAEA
    In:  Supplement to: Harning, David J; Andrews, John T; Belt, Simon T; Cabedo-Sanz, Patricia; Geirsdóttir, Áslaug; Dildar, Nadia; Miller, Gifford H; Sepúlveda, Julio (2019): Sea Ice Control on Winter Subsurface Temperatures of the North Iceland Shelf During the Little Ice Age: A TEX86 Calibration Case Study. Paleoceanography and Paleoclimatology, 34(6), 1006-1021, https://doi.org/10.1029/2018PA003523
    Publication Date: 2023-02-12
    Description: Holocene paleoceanographic reconstructions along the North Iceland Shelf have employed a variety of sea surface temperature and sea ice proxies. However, these surface proxies tend to have a seasonal bias toward spring/summer and thus only provide a discrete snapshot of surface conditions during one season. Furthermore, sea surface temperature proxies can be influenced by additional confounding variables resulting in markedly different Holocene temperature reconstructions. Here, we expand Iceland's marine paleoclimate toolkit with TEX86 L: a temperature proxy based on the distribution of archaeal glycerol dibiphytanyl glycerol tetraether (GDGT) lipids. We develop a local Icelandic calibration from 21 surface sediment samples covering a wide environmental gradient across Iceland's insular shelves. Locally calibrated GDGT results demonstrate that (1) TEX86 L reflects winter subsurface (0-200 m) temperatures on the North Iceland Shelf and (2) our calibration produces more realistic temperature estimates with substantially lower uncertainty (S.E. ±4 °C) over global calibrations. We then apply this new calibration to a high‐resolution marine sediment core (last millennium) collected from the central NIS with age control constrained by 14C‐dated mollusks. To test the veracity of the GDGT subsurface temperatures, we analyze quartz and calcite wt% and a series of highly branched isoprenoid alkenes, including the sea ice biomarker IP25, from the same core. The sediment records demonstrate that the development of thick sea ice during the Little Ice Age warmed the subsurface due to winter insulation. Importantly, this observation reflects a seasonal component of the sea ice/ocean feedback to be considered for the nonlinear cooling of the Little Ice Age in and around Iceland.
    Keywords: (9Z)-2,6,10,14-Tetramethyl-7-(3-methylpent-4-enyliden)pentadeca-9-ene per unit sediment mass; 2,6,10,14-Tetramethyl-7-(3-methylpent-4-enyl)pentadecane per unit sediment mass; Acyclic glycerol dialkyl glycerol tetraether; Age; AGE; B997-316; Crenarchaeol; Crenarchaeol regio-isomer; DEPTH, sediment/rock; Dicyclic glycerol dialkyl glycerol tetraether; Diene II per unit sediment mass; GGC; Giant gravity corer; Glycerol dialkyl glycerol tetraethers; Monocyclic glycerol dialkyl glycerol tetraether; North Icelandic Shelf; Sample ID; Temperature, water, winter; Tetraether index of 86 carbon atoms, low-temperature region; Tricyclic glycerol dialkyl glycerol tetraether
    Type: Dataset
    Format: text/tab-separated-values, 490 data points
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  • 5
    Publication Date: 2023-10-16
    Description: This data set was used to trace changes in carbon cycling and productivity in the Western Interior Seaway (WIS) through Oceanic Anoxic Event 2 (OAE2; 94 Ma). Samples were present in the SH#1 core, which was recovered in the summer of 2014 near Big Water, Utah (37.158466°N, 111.531947°W). Compound-specific carbon isotope data was produced using gas chromatography-isotope ratio mass spectrometry (GCIRMS) between February 2017 and November 2018. Raw data were used in calculations described in Boudinot et al., (in review) to estimate changes in the carbon isotopic composition of marine DIC and atmospheric CO2, as well as changes in pCO2, throughout OAE2, all of which are outlined in the data file. Assumptions and estimates of environmental conditions impacting these estimated carbon-cycle relevant metrics are presented. These data demonstrate both the methods and outputs of using compound-specific carbon isotope analyses to estimate local and global carbon cycle dynamics during an interval of global change during Earth history. Specifically, the data file includes (A) core depth in meters of the SH#1 core, (B) the name of the compound identified using GC-MS (in Boudinot et al., 2020, Neritic ecosystem response to Oceanic Anoxic Event 2 in the Cretaceous Western Interior Seaway, USA. Palaeogeography, Palaeoclimatology, Palaeoecology, 546, 109673), (C) the calibrated mean carbon isotopic composition of the compound in per mil relative to VPDB, (D) the preparation undertaken prior to analysis on GC-IRMS (i.e., either having undergone urea adduction or not), (E) the carbon isotopic composition of carbonate from the same depth as presented in Jones et al. (2019, Astronomical pacing of relative sea level during Oceanic Anoxic Event 2: Preliminary studies of the expanded SH#1 core, Utah, USA. GSA Bulletin, 131 (9-10): 1702–1722) or as analyzed in Boudinot et al. (in review) (described in methods, indicated in figures), (F) the analytical standard deviation of the carbon isotopic composition of compounds based on either duplicate analysis, or on the predicted standard error based on the calibration ("true_d13c_pred_se" in isoprocessor), (G) the number of duplicate compound-specific analyses, with NA indicating that only one analysis was performed and thus the predicted standard error based on the calibration was used to estimate the standard deviation, (H-I) the minimum and maximum net carbon isotope fractionation during carbon fixation and biosynthesis for the autotroph responsible for each lipid synthesis, in per mil, (J-L) the minimum, maximum, and average fixed inorganic carbon pool carbon isotopic composition estimated using the equations presented in Boudinot et al. (in review), (M) temperature estimate in degrees kelvin, (N) the calculated temperature-dependent carbon isotope fractionation of CO2 with respect to bicarbonate in per mil, (O) the carbon isotopic composition of marine DIC based on the carbon isotopic composition of carbonate for that depth in per mil, (P-R) the minimum, maximum, and average carbon isotopic composition of primary photosynthate calculated using the equation described in Boudinot et al. (in review) in per mil, (S) the carbon isotopic fractionation associated with photosynthesis in per mil, (T) the solubility constant of CO2 based on salinity and temperature estimates relevant to the SH#1 core, (U-V) the high and low b-value estimates used as constants to represent the role of productivity in modulating carbon isotope fractionation during photosynthesis, (W) the carbon isotopic composition of aqueous CO2 estimated using the carbon isotopic composition of carbonate, (X) the carbon isotopic composition of aqueous CO2 estimated using the carbon isotopic composition of biomarkers, (Y) epsilon p estimated using b values, the calculated carbon isotopic composition of primary photosynthate, and the calculated carbon isotopic composition of aqueous CO2 estimated using carbonate, (Z-AA) the high and low estimates of the aqueous concentration of CO2 in seawater at the SH#1 core location using epsilon p estimates from the carbon isotopic composition of carbonate, in micromol CO2/kg, (AB-AC) the high and low estimates of pCO2 using the estimate of aqueous CO2 derived from the carbon isotopic composition of carbonate, in ppmv, (AD) epsilon p estimated using b values, the calculated carbon isotopic composition of primary photosynthate, and the calculated carbon isotopic composition of aqueous CO2 estimated using biomarkers, (AE-AF) the high and low estimates of the aqueous concentration of CO2 in seawater at the SH#1 core location using epsilon p estimates from the carbon isotopic composition of biomarkers, in micromol CO2/kg, and (AG-AH) the high and low estimates of pCO2 using the estimate of aqueous CO2 derived from the carbon isotopic composition of biomarkers, in ppmv.
    Keywords: Biomarkers; Carbon dioxide; Carbon dioxide, partial pressure maximum; Carbon dioxide, partial pressure minimum; Carbon dioxide solubility; Compounds; Constant; Core; CORE; Cretaceous; DEPTH, sediment/rock; Isotopic fractionation; Number; Oceanic Anoxic Event 2; Organic Geochemistry; SH_1; Stable isotopes; Thermodynamic temperature; Treatment; Utah, United States of America; Western Interior Seaway; δ13C; δ13C, carbonate; δ13C, carbonate, standard deviation; δ13C, carbon dioxide, aquatic
    Type: Dataset
    Format: text/tab-separated-values, 8126 data points
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  • 6
    Publication Date: 2023-11-30
    Description: Bacteriohopanepolyol abundances and ratios were studied in suspended particulate matter obtained along the redoxcline in Effingham Inlet (lat 49.07, long −125.15; 120m water depth) and Deer Bay (lat 49.22, long −125.60; 40m water depth), Vancouver Island, to infer chemo(auto)trophy in these fjords. Water column suspended particulate matter samples were obtained from Vancouver Island fjords using McLane WTS-LV (standard configuration) in situ filtration systems aboard R/V Barnes in July 2007.
    Keywords: 2methyl-adenosylhopane; 2-methyladenosylhopane-type 2; 2methyl-adenosylhopane-type 2 per unit mass particulate organic carbon; 2-methyladenosylhopane-type 3; 2methyl-adenosylhopane-type 3 per unit mass particulate organic carbon; 2methyl-aminobacteriohopanetriol; 2methyl-aminobacteriohopanetriol per unit mass particulate organic carbon; 2methyl-bacteriohopanetetrol; 2methyl-bacteriohopanetetrol pentose; 2methyl-bacteriohopanetetrol pentose per unit mass particulate organic carbon; 2methyl-bacteriohopanetetrol per unit mass particulate organic carbon; 3methyl-aminobacteriohopanetriol; 3methyl-aminobacteriohopanetriol per unit mass particulate organic carbon; 3methyl-bacteriohopanetetrol; 3methyl-bacteriohopanetetrol per unit mass particulate organic carbon; Adenosylhopane; Adenosylhopane per unit mass particulate organic carbon; Adenosylhopane-type 2; adenosylhopane-type 2 per unit mass particulate organic carbon; Adenosylhopane-type 3; Aminobacteriohopanepentol; Aminobacteriohopanetetrol; Aminobacteriohopanetetrol per unit mass particulate organic carbon; Aminobacteriohopanetriol; Aminobacteriohopanetriol isomer; Aminobacteriohopanetriol per unit mass particulate organic carbon; Aminopentol:aminotriol; Aminotetrol:aminotriol; Anhydrobacteriohopanetetrol; Anhydrobacteriohopanetetrol per unit mass particulate organic carbon; Bacteriohopanehexol; Bacteriohopanehexol per unit mass particulate organic carbon; Bacteriohopanepolyols; Bacteriohopanepolyols, total; Bacteriohopanetetrol; Bacteriohopanetetrol cyclitol ether; Bacteriohopanetetrol cyclitol ether per unit mass particulate organic carbon; Bacteriohopanetetrol glucosamine; Bacteriohopanetetrol glucosamine per unit mass particulate organic carbon; Bacteriohopanetetrol isomer; Bacteriohopanetetrol isomer per unit mass particulate organic carbon; Bacteriohopanetetrol isomer ratio; Bacteriohopanetetrol pentose; Bacteriohopanetetrol pentose per unit mass particulate organic carbon; Bacteriohopanetetrol per unit mass particulate organic carbon; British Columbia, Canada; C16-acyl-aminobacteriohopanetriol; C16-acyl-aminobacteriohopanetriol per unit mass particulate organic carbon; Carbon, organic, particulate; Deer_Bay_Tofino_Inlet; DEPTH, water; Effingham_Inlet; Event label; In situ pump; ISP; oxygen minimum zone; redoxcline; unsaturated anhydrobacteriohopanetetrol; Unsaturated bacteriohopanetetrol pentose; Unsaturated bacteriohopanetetrol pentose, per unit mass particulate organic carbon; Vancouver Island; Volume, filter
    Type: Dataset
    Format: text/tab-separated-values, 290 data points
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  • 7
  • 8
  • 9
    Publication Date: 2021-08-21
    Print ISSN: 2572-4517
    Electronic ISSN: 2572-4525
    Topics: Geosciences
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  • 10
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