Waelbroeck, Claire; Lougheed, Bryan C; Vázquez Riveiros, Natalia; Missiaen, Lise; Pedro, Joel B; Dokken, Trond; Hajdas, Irka; Wacker, Lukas; Abbott, Peter M; Dumoulin, Jean-Pascal; Thil, François; Eynaud, Frédérique; Rossignol, Linda; Fersi, Wiem; Albuquerque, Ana Luiza Spadano; Arz, Helge Wolfgang; Austin, William EN; Came, Rosemarie E; Carlson, Anders Eskil; Collins, James A; Dennielou, Bernard; Desprat, Stéphanie; Dickson, Alex; Elliot, Mary; Farmer, Christa; Giraudeau, Jacques; Gottschalk, Julia; Henderiks, Jorijntje; Hughen, Konrad A; Jung, Simon; Knutz, Paul Cornils; Lebreiro, Susana Martin; Lund, David C; Lynch-Stieglitz, Jean; Malaizé, Bruno; Marchitto, Thomas M; Martínez Méndez, Gema; Mollenhauer, Gesine; Naughton, Filipa; Nave, Silvia Osorio; Nürnberg, Dirk; Oppo, Delia W; Peck, Victoria L; Peeters, Frank J C; Penaud, Aurélie; Portilho-Ramos, Rodrigo Costa; Repschläger, Janne; Roberts, Jenny; Rühlemann, Carsten; Salgueiro, Emilia; Sanchez Goñi, Maria Fernanda; Schönfeld, Joachim; Scussolini, Paolo; Skinner, Luke C; Skonieczny, Charlotte; Thornalley, David J R; Toucanne, Samuel; Van Rooij, David; Vidal, Laurence; Voelker, Antje H L; Wary, Mélanie; Weldeab, Syee; Ziegler, Martin (2019): A summary of consistently dated Atlantic sediment cores over the last 40 thousand years [dataset]. PANGAEA, https://doi.org/10.1594/PANGAEA.899490, In: Waelbroeck, C et al. (2019): Consistently dated Atlantic sediment cores [dataset publication series]. PANGAEA, https://doi.org/10.1594/PANGAEA.900073
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Abstract:
Rapid changes in ocean circulation and climate have been observed in marine-sediment and ice cores over the last glacial period and deglaciation, highlighting the non-linear character of the climate system and underlining the possibility of rapid climate shifts in response to anthropogenic greenhouse gas forcing. To date, these rapid changes in climate and ocean circulation are still not fully explained. One obstacle hindering progress in our understanding of the interactions between past ocean circulation and climate changes is the difficulty of accurately dating marine cores. Here, we present a set of 92 marine sediment cores from the Atlantic Ocean for which we have established age-depth models that are consistent with the Greenland GICC05 ice core chronology, and computed the associated dating uncertainties, using a new deposition modeling technique. This is the first set of consistently dated marine sediment cores enabling paleoclimate scientists to evaluate leads/lags between circulation and climate changes over vast regions of the Atlantic Ocean. Moreover, this data set is of direct use in paleoclimate modeling studies.
Related to:
Waelbroeck, Claire; Lougheed, Bryan C; Vázquez Riveiros, Natalia; Missiaen, Lise; Pedro, Joel B; Dokken, Trond; Hajdas, Irka; Wacker, Lukas; Abbott, Peter M; Dumoulin, Jean-Pascal; Thil, François; Eynaud, Frédérique; Rossignol, Linda; Fersi, Wiem; Albuquerque, Ana Luiza Spadano; Arz, Helge Wolfgang; Austin, William EN; Came, Rosemarie E; Carlson, Anders Eskil; Collins, James A; Dennielou, Bernard; Desprat, Stéphanie; Dickson, Alex; Elliot, Mary; Farmer, Christa; Giraudeau, Jacques; Gottschalk, Julia; Henderiks, Jorijntje; Hughen, Konrad A; Jung, Simon; Knutz, Paul Cornils; Lebreiro, Susana Martin; Lund, David C; Lynch-Stieglitz, Jean; Malaizé, Bruno; Marchitto, Thomas M; Martínez Méndez, Gema; Mollenhauer, Gesine; Naughton, Filipa; Nave, Silvia Osorio; Nürnberg, Dirk; Oppo, Delia W; Peck, Victoria L; Peeters, Frank J C; Penaud, Aurélie; Portilho-Ramos, Rodrigo Costa; Repschläger, Janne; Roberts, Jenny; Rühlemann, Carsten; Salgueiro, Emilia; Sanchez Goñi, Maria Fernanda; Schönfeld, Joachim; Scussolini, Paolo; Skinner, Luke C; Skonieczny, Charlotte; Thornalley, David J R; Toucanne, Samuel; Van Rooij, David; Vidal, Laurence; Voelker, Antje H L; Wary, Mélanie; Weldeab, Syee; Ziegler, Martin (2019): Consistently dated Atlantic sediment cores over the last 40 thousand years. Scientific Data, 6(1), 165, https://doi.org/10.1038/s41597-019-0173-8
Further details:
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Coverage:
Median Latitude: 21.456630 * Median Longitude: -25.634783 * South-bound Latitude: -53.010000 * West-bound Longitude: -87.120000 * North-bound Latitude: 67.870000 * East-bound Longitude: 29.240000
Date/Time Start: 1971-12-03T00:00:00 * Date/Time End: 2012-03-08T16:07:00
Minimum ALTITUDE: -5010 m * Maximum ALTITUDE: -426 m
Event(s):
94-609 * Latitude: 49.877800 * Longitude: -24.238200 * Date/Time: 1983-07-22T00:00:00 * Elevation: -3884.0 m * Penetration: 399.4 m * Recovery: 301.4 m * Location: North Atlantic/FLANK * Campaign: Leg94 * Basis: Glomar Challenger * Method/Device: Drilling/drill rig (DRILL) * Comment: 40 cores; 380.2 m cored; 19.2 m drilled; 79.3 % recovery
162-983 * Latitude: 60.403500 * Longitude: -23.640667 * Date/Time Start: 1995-07-21T00:00:00 * Date/Time End: 1995-07-24T00:00:00 * Elevation: -1983.7 m * Penetration: 766.5 m * Recovery: 798 m * Location: South Atlantic Ocean * Campaign: Leg162 * Basis: Joides Resolution * Method/Device: Composite Core (COMPCORE) * Comment: 82 cores; 766.5 m cored; 0 m drilled; 104.1% recovery
165-1002 * Latitude: 10.706100 * Longitude: -65.169617 * Date/Time Start: 1996-02-18T00:00:00 * Date/Time End: 1996-02-20T00:00:00 * Elevation: -892.9 m * Penetration: 516.6 m * Recovery: 529.3 m * Location: Cayman Rise, Caribbean Sea * Campaign: Leg165 * Basis: Joides Resolution * Method/Device: Composite Core (COMPCORE) * Comment: 57 cores; 516.6 m cored; 0 m drilled; 102.5% recovery
Parameter(s):
| # | Name | Short Name | Unit | Principal Investigator | Method/Device | Comment |
|---|---|---|---|---|---|---|
| 1 | Event label | Event | Waelbroeck, Claire | |||
| 2 | Core | Core | Waelbroeck, Claire | |||
| 3 | LATITUDE | Latitude | Waelbroeck, Claire | Geocode | ||
| 4 | LONGITUDE | Longitude | Waelbroeck, Claire | Geocode | ||
| 5 | ALTITUDE | Altitude | m | Waelbroeck, Claire | Geocode – depth | |
| 6 | Comment | Comment | Waelbroeck, Claire | Based on deep sea coral data given in Roberts et al., 2016 | ||
| 7 | Method comment | Method comm | Waelbroeck, Claire | Entirely AMS-based | ||
| 8 | Method comment | Method comm | Waelbroeck, Claire | SST alignment to NGRIP | ||
| 9 | Method comment | Method comm | Waelbroeck, Claire | MS aligment to NGRIP | ||
| 10 | Method comment | Method comm | Waelbroeck, Claire | SST alignment to EDML | ||
| 11 | Method comment | Method comm | Waelbroeck, Claire | Combined AMS + SST alignment to NGRIP | ||
| 12 | Method comment | Method comm | Waelbroeck, Claire | Combined AMS + alignment to speleothems | ||
| 13 | Method comment | Method comm | Waelbroeck, Claire | Use of tephra chronological markers | ||
| 14 | Persistent Identifier | Persistent Identifier | Waelbroeck, Claire | Age-depth model | ||
| 15 | Uniform resource locator/link to graphic | URL graphic | Waelbroeck, Claire | Age model input | ||
| 16 | Uniform resource locator/link to graphic | URL graphic | Waelbroeck, Claire | Age model | ||
| 17 | Reference/source | Reference | Waelbroeck, Claire |
License:
Creative Commons Attribution 4.0 International (CC-BY-4.0)
Size:
563 data points
Data
| 1 Event | 2 Core | 3 Latitude | 4 Longitude | 5 Altitude [m] (depth) | 6 Comment (Based on deep sea coral data ...) | 7 Method comm (Entirely AMS-based) | 8 Method comm (SST alignment to NGRIP) | 9 Method comm (MS aligment to NGRIP) | 10 Method comm (SST alignment to EDML) | 11 Method comm (Combined AMS + SST alignment ...) | 12 Method comm (Combined AMS + alignment to s...) | 13 Method comm (Use of tephra chronological m...) | 14 Persistent Identifier (Age-depth model) | 15 URL graphic (Age model input) | 16 URL graphic (Age model) | 17 Reference |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| PS2644-5 | PS2644-5 | 67.87 | -21.77 | -777 | X | X | doi.pangaea.de | PS2644-5_age_depth_input.txt | PS2644-5_admodel.pdf | Voelker and Haflidason, 2015, Voelker, 1999 | ||||||
| MD95-2010 | MD95-2010 | 66.68 | 4.57 | -1226 | X | X | doi.pangaea.de | MD95-2010_age_depth_input.txt | MD95-2010_admodel.pdf | Abbott et al., 2018, Dokken and Jansen, 1999 | ||||||
| RAPiD-10-1P | RAPID-10-1P | 62.98 | -17.59 | -1237 | X | X | doi.pangaea.de | RAPID-10-1P_age_depth_input.txt | RAPID-10-1P_admodel.pdf | Thornalley et al., 2010 | ||||||
| ENAM93-21 | ENAM93-21 | 62.74 | -4.00 | -1020 | X | X | doi.pangaea.de | ENAM93-21_age_depth_input.txt | ENAM93-21_admodel.pdf | Rasmussen et al., 1996, Rasmussen et al., 1998 | ||||||
| MD99-2284 | MD99-2284 | 62.37 | -0.98 | -1500 | X | doi.pangaea.de | MD99-2284_age_depth_input.txt | MD99-2284_admodel.pdf | Dokken et al., 2013, Sadatzki et al., 2019 | |||||||
| SU90-24 | SU90-24 | 62.07 | -37.03 | -2085 | X | doi.pangaea.de | SU90-24_age_depth_input.txt | SU90-24_admodel.pdf | Elliot et al., 2002 | |||||||
| RAPiD-17-5P | RAPID-17-5P | 61.48 | -19.54 | -2303 | X | X | doi.pangaea.de | RAPID-17-5P_age_depth_input.txt | RAPID-17-5P_admodel.pdf | Thornalley et al., 2010 | ||||||
| MD95-2014 | MD95-2014 | 60.58 | -22.08 | -2397 | X | doi.pangaea.de | MD95-2014_age_depth_input.txt | MD95-2014_admodel.pdf | Manthé, 1998 | |||||||
| 162-983 | ODP Site 983 | 60.40 | -23.64 | -1984 | X | doi.pangaea.de | ODP983_age_depth_input.txt | ODP983_admodel.pdf | Barker et al., 2015, Raymo et al., 2004 | |||||||
| V29-202 | V29-202 | 60.38 | -20.97 | -2658 | X | doi.pangaea.de | V29-202_age_depth_input.txt | V29-202_admodel.pdf | Oppo and Lehman, 1995 | |||||||
| MD99-2281 | MD99-2281 | 60.34 | -9.46 | -1197 | X | doi.pangaea.de | MD99-2281_age_depth_input.txt | MD99-2281_admodel.pdf | Wary et al., 2015, Zumaque et al., 2012 | |||||||
| SO82_5-2 | SO82-5-2 | 59.17 | -30.91 | -1416 | X | X | doi.pangaea.de | SO82-5-2_age_depth_input.txt | SO82-5-2_admodel.pdf | Brendryen et al., 2011, van Kreveld et al., 2000 | ||||||
| DAPC2 | DAPC2 | 58.97 | -9.61 | -1709 | X | doi.pangaea.de | DAPC2_age_depth_input.txt | DAPC2_admodel.pdf | Knutz et al., 2007 | |||||||
| MD95-2006 | MD95-2006 | 57.03 | -10.06 | -2122 | X | X | doi.pangaea.de | MD95-2006_age_depth_input.txt | MD95-2006_admodel.pdf | Austin and Hibbert, 2012 | ||||||
| NA87-22 | NA87-22 | 55.50 | -14.70 | -2161 | X | doi.pangaea.de | NA87-22_age_depth_input.txt | NA87-22_admodel.pdf | Duplessy et al., 1992, Vidal et al., 1997, Waelbroeck et al., 2001, Waelbroeck et al., 2011, this study | |||||||
| GIK23415-9 | GIK23415-9 | 53.18 | -19.15 | -2472 | X | X | doi.pangaea.de | GIK23415-9_age_depth_input.txt | GIK23415-9_admodel.pdf | Abbott et al., 2018, Vogelsang, 2001, Weinelt et al., 2003 | ||||||
| MD01-2461 | MD01-2461 | 51.75 | -12.92 | -1153 | X | X | doi.pangaea.de | MD01-2461_age_depth_input.txt | MD01-2461_admodel.pdf | Abbott et al., 2018, Peck et al., 2008, Peck et al., 2006, Peck et al., 2007 | ||||||
| 94-609 | DSDP Site 609 | 49.88 | -24.23 | -3883 | X | X | doi.pangaea.de | DSDP609_age_depth_input.txt | DSDP609_admodel.pdf | Bond et al., 1993, Broecker, 1990 | ||||||
| MD95-2002 | MD95-2002 | 47.45 | -8.53 | -2174 | X | doi.pangaea.de | MD95-2002_age_depth_input.txt | MD95-2002_admodel.pdf | Eynaud et al., 2007, Toucanne et al., 2015 | |||||||
| MD04-2845 | MD04-2845 | 45.35 | -5.22 | -4175 | X | doi.pangaea.de | MD04-2845_age_depth_input.txt | MD04-2845_admodel.pdf | Daniau et al., 2009, Sanchez Goni et al., 2008 | |||||||
| SU92-03 | SU92-03 | 43.20 | -10.11 | -3005 | X | doi.pangaea.de | SU92-03_age_depth_input.txt | SU92-03_admodel.pdf | Salgueiro et al., 2010 | |||||||
| SU90-08 | SU90-08 | 43.05 | -30.04 | -3080 | X | doi.pangaea.de | SU90-08_age_depth_input.txt | SU90-08_admodel.pdf | Vidal et al., 1997 | |||||||
| MD03-2697 | MD03-2697 | 42.16 | -9.70 | -2164 | X | doi.pangaea.de | MD03-2697_age_depth_input.txt | MD03-2697_admodel.pdf | Naughton et al., 2007, Naughton et al., 2016 | |||||||
| MD99-2331 | MD99-2331 | 42.15 | -9.68 | -2120 | X | doi.pangaea.de | MD99-2331_age_depth_input.txt | MD99-2331_admodel.pdf | Naughton et al., 2009, Salgueiro et al., 2014, Voelker and de Abreu, 2011 | |||||||
| CH69-K09 | CH69-K09 | 41.76 | -47.35 | -4100 | X | doi.pangaea.de | CH69-K09_age_depth_input.txt | CH69-K09_admodel.pdf | Labeyrie et al., 1999 | |||||||
| MD95-2040 | MD95-2040 | 40.58 | -9.86 | -2465 | X | doi.pangaea.de | MD95-2040_age_depth_input.txt | MD95-2040_admodel.pdf | de Abreu et al., 2003, Salgueiro et al., 2010, Schönfeld et al., 2003 | |||||||
| MD95-2039 | MD95-2039 | 40.58 | -10.35 | -3381 | X | doi.pangaea.de | MD95-2039_age_depth_input.txt | MD95-2039_admodel.pdf | Salgueiro et al., 2014, Schönfeld et al., 2003 | |||||||
| MD03-2698 | MD03-2698 | 38.24 | -10.39 | -4602 | X | doi.pangaea.de | MD03-2698_age_depth_input.txt | MD03-2698_admodel.pdf | Lebreiro et al., 2009, this study | |||||||
| KF16 | GEOFAR-KF16 | 38.00 | -31.13 | -3050 | X | doi.pangaea.de | GEOFAR-KF16_age_depth_input.txt | GEOFAR-KF16_admodel.pdf | Repschläger et al., 2017 | |||||||
| MD08-3180 | MD08-3180Q | 38.00 | -31.13 | -3064 | X | doi.pangaea.de | MD08-3180Q_age_depth_input.txt | MD08-3180Q_admodel.pdf | Sarnthein et al., 2015, Schwab et al., 2012 | |||||||
| MD95-2041 | MD95-2041 | 37.83 | -9.52 | -1123 | X | doi.pangaea.de | MD95-2041_age_depth_input.txt | MD95-2041_admodel.pdf | Salgueiro et al., 2014, Voelker et al., 2009, Voelker and de Abreu, 2011 | |||||||
| MD95-2042 | MD95-2042 | 37.80 | -10.17 | -3146 | X | doi.pangaea.de | MD95-2042_age_depth_input.txt | MD95-2042_admodel.pdf | Bard et al., 2013, Chabaud et al., 2014, Salgueiro et al., 2014, Shackleton et al., 2000 | |||||||
| MD99-2334 | MD99-2334K | 37.80 | -10.17 | -3146 | X | doi.pangaea.de | MD99-2334K_age_depth_input.txt | MD99-2334K_admodel.pdf | Skinner et al., 2003, Skinner and Shackleton, 2004 | |||||||
| SU81-18 | SU81-18 | 37.77 | -10.18 | -3135 | X | doi.pangaea.de | SU81-18_age_depth_input.txt | SU81-18_admodel.pdf | Bard et al., 1987, Waelbroeck et al., 2001 | |||||||
| KF13 | GEOFAR-KF13 | 37.58 | -31.84 | -2690 | X | doi.pangaea.de | GEOFAR-KF13_age_depth_input.txt | GEOFAR-KF13_admodel.pdf | Richter, 1998 | |||||||
| MD95-2037 | MD95-2037 | 37.09 | -32.03 | -2159 | X | doi.pangaea.de | MD95-2037_age_depth_input.txt | MD95-2037_admodel.pdf | Gherardi et al., 2009, Labeyrie et al., 2005, this study | |||||||
| S94-2-KS04 | S94-2-KS04 | 36.87 | -29.18 | -3400 | X | doi.pangaea.de | S94-2-KS04_age_depth_input.txt | S94-2-KS04_admodel.pdf | this study | |||||||
| KNR197-10-GGC17 | KNR197-10-17GGC | 36.41 | -48.54 | -5010 | X | doi.pangaea.de | KNR197-10-17GGC_age_depth_input.txt | KNR197-10-17GGC_admodel.pdf | Keigwin and Swift, 2017 | |||||||
| M39/1_08-3 | M39008-3 | 36.38 | -7.07 | -577 | X | doi.pangaea.de | M39008-3_age_depth_input.txt | M39008-3_admodel.pdf | Cacho et al., 2001, Eynaud et al., 2009 | |||||||
| MD08-3227G | MD08-3227 | 35.27 | -6.80 | -642 | X | doi.pangaea.de | MD08-3227_age_depth_input.txt | MD08-3227_admodel.pdf | Delivet, 2016, this study | |||||||
| GIK15669-1 | GIK15669-1 | 34.89 | -7.82 | -2022 | X | doi.pangaea.de | GIK15669-1_age_depth_input.txt | GIK15669-1_admodel.pdf | Sarnthein et al., 1994 | |||||||
| MD04-2805CQ | MD04-2805Q | 34.52 | -7.02 | -859 | X | doi.pangaea.de | MD04-2805Q_age_depth_input.txt | MD04-2805Q_admodel.pdf | Penaud et al., 2010, this study | |||||||
| OCE326-GGC5 | OCE326-GGC5 | 33.70 | -57.58 | -4550 | X | doi.pangaea.de | OCE326-GGC5_age_depth_input.txt | OCE326-GGC5_admodel.pdf | Carlson et al., 2008, McManus et al., 2004 | |||||||
| KNR31GPC5 | KNR31-GPC5 | 33.69 | -57.63 | -4583 | X | doi.pangaea.de | KNR31-GPC5_age_depth_input.txt | KNR31-GPC5_admodel.pdf | Keigwin et al., 1991, Keigwin and Jones, 1994, Waelbroeck et al., 2011 | |||||||
| KNR140-51GGC | KNR140-51GGC | 32.78 | -76.28 | -1790 | X | doi.pangaea.de | KNR140-2-51GGC_age_depth_input.txt | KNR140-2-51GGC_admodel.pdf | Keigwin, 2004, Rasmussen and Thomsen, 2012 | |||||||
| 172-1060 | ODP Site 1060 | 30.77 | -74.47 | -3481 | X | doi.pangaea.de | ODP1060_age_depth_input.txt | ODP1060_admodel.pdf | Hoogakker et al., 2007, Vautravers et al., 2004 | |||||||
| MD02-2575 | MD02-2575 | 29.00 | -87.12 | -847 | X | doi.pangaea.de | MD02-2575_age_depth_input.txt | MD02-2575_admodel.pdf | Nürnberg et al., 2008, Ziegler et al., 2008 | |||||||
| GeoB4240-2 | GeoB4240-2 | 28.89 | -13.23 | -1358 | X | doi.pangaea.de | GeoB4240-2_age_depth_input.txt | GeoB4240-2_admodel.pdf | Henderiks et al., 2002 | |||||||
| GeoB5546-2 | GeoB5546-2 | 27.54 | -13.74 | -1172 | X | doi.pangaea.de | GeoB5546-2_age_depth_input.txt | GeoB5546-2_admodel.pdf | Kuhlmann et al., 2004, Plewa et al., 2006 | |||||||
| OCE205-2-100GGC | OCE205-2-100GGC | 26.10 | -78.00 | -1045 | X | doi.pangaea.de | OCE205-2-100GGC_age_depth_input.txt | OCE205-2-100GGC_admodel.pdf | Came et al., 2007 | |||||||
| OCE205-2-103GGC | OCE205-2-103GGC | 26.07 | -78.06 | -965 | X | doi.pangaea.de | OCE205-2-103GGC_age_depth_input.txt | OCE205-2-103GGC_admodel.pdf | Came et al., 2003, Curry et al., 1999, Marchitto et al., 1998 | |||||||
| GIK12392-1 | GIK12392-1 | 25.17 | -16.85 | -2575 | X | doi.pangaea.de | GIK12392-1_age_depth_input.txt | GIK12392-1_admodel.pdf | Vogelsang, 2001, Zahn et al., 1986 | |||||||
| KNR166-2-26 | KNR166-2-26JPC | 24.33 | -83.25 | -546 | X | doi.pangaea.de | KNR166-2-26JPC_age_depth_input.txt | KNR166-2-26JPC_admodel.pdf | Lynch-Stieglitz et al., 2014, Lynch?Stieglitz et al., 2011, Valley et al., 2017 | |||||||
| KNR166-2-29 | KNR166-2-29JPC | 24.28 | -83.27 | -648 | X | doi.pangaea.de | KNR166-2-29JPC_age_depth_input.txt | KNR166-2-29JPC_admodel.pdf | Lynch?Stieglitz et al., 2011 | |||||||
| KNR166-2-31 | KNR166-2-31JPC | 24.22 | -83.30 | -751 | X | doi.pangaea.de | KNR166-2-31JPC_age_depth_input.txt | KNR166-2-31JPC_admodel.pdf | Came et al., 2008, Lynch?Stieglitz et al., 2011 | |||||||
| KNR166-2-73 | KNR166-2-73GGC | 23.74 | -79.43 | -542 | X | doi.pangaea.de | KNR166-2-73GGC_age_depth_input.txt | KNR166-2-73GGC_admodel.pdf | Lynch?Stieglitz et al., 2011 | |||||||
| GeoB7920-2 | GeoB7920-2 | 20.75 | -18.58 | -2278 | X | doi.pangaea.de | GeoB7920-2_age_depth_input.txt | GeoB7920-2_admodel.pdf | Collins et al., 2011, Papenfuss, 1999 | |||||||
| MD03-2705 | MD03-2705 | 18.08 | -21.15 | -3085 | X | doi.pangaea.de | MD03-2705_age_depth_input.txt | MD03-2705_admodel.pdf | Jullien et al., 2007, Skonieczny et al., 2019 | |||||||
| CHO288-54 | CHO288-54 | 17.43 | -77.66 | -1020 | X | doi.pangaea.de | CHO288-54_age_depth_input.txt | CHO288-54_admodel.pdf | this study | |||||||
| GeoB9508-5 | GeoB9508-5 | 15.50 | -17.95 | -2384 | X | doi.pangaea.de | GeoB9508-5_age_depth_input.txt | GeoB9508-5_admodel.pdf | Mulitza et al., 2008 | |||||||
| GeoB9526-5 | GeoB9526-5 | 12.43 | -18.05 | -3233 | X | doi.pangaea.de | GeoB9526-5_age_depth_input.txt | GeoB9526-5_admodel.pdf | Zarriess and Mackensen, 2010 | |||||||
| M35003-4 | M35003-4 | 12.09 | -61.24 | -1299 | X | doi.pangaea.de | M35003-4_age_depth_input.txt | M35003-4_admodel.pdf | Vink et al., 2001 | |||||||
| 165-1002 | ODP Site 1002 | 10.71 | -65.17 | -892 | X | doi.pangaea.de | ODP1002_age_depth_input.txt | ODP1002_admodel.pdf | Hughen et al., 2006 | |||||||
| GeoB16224-1 | GeoB16224-1 | 6.65 | -52.08 | -2510 | X | doi.pangaea.de | GeoB16224-1_age_depth_input.txt | GeoB16224-1_admodel.pdf | Voigt et al., 2017, Zhang et al., 2015 | |||||||
| EW9209-1JPC | EW9209-1JPC | 5.90 | -44.19 | -4056 | X | doi.pangaea.de | EW9209-1JPC_age_depth_input.txt | EW9209-1JPC_admodel.pdf | Curry et al., 1999 | |||||||
| GeoB1515-1 | GeoB1515-1 | 4.24 | -43.07 | -3129 | X | doi.pangaea.de | GeoB1515-1_age_depth_input.txt | GeoB1515-1_admodel.pdf | Rühlemann et al., 1996, Vidal et al., 1999 | |||||||
| CH22KW31 | CH22-KW31 | 3.52 | 5.57 | -1181 | X | doi.pangaea.de | CH22-KW31_age_depth_input.txt | CH22-KW31_admodel.pdf | Pastouret et al., 1978 | |||||||
| MD03-2707 | MD03-2707 | 2.50 | 9.40 | -1295 | X | doi.pangaea.de | MD03-2707_age_depth_input.txt | MD03-2707_admodel.pdf | Weldeab et al., 2007 | |||||||
| GeoB16206-1 | GeoB16206-1 | -1.58 | -43.02 | -1367 | X | doi.pangaea.de | GeoB16206-1_age_depth_input.txt | GeoB16206-1_admodel.pdf | Voigt et al., 2017, Zhang et al., 2015 | |||||||
| GeoB16202-2 | GeoB16202-2 | -1.91 | -41.59 | -2247 | X | doi.pangaea.de | GeoB16202-2_age_depth_input.txt | GeoB16202-2_admodel.pdf | Mulitza et al., 2017 | |||||||
| MD09-3256 | MD09-3256Q | -3.55 | -35.39 | -3537 | X | doi.pangaea.de | MD09-3256Q_age_depth_input.txt | MD09-3256Q_admodel.pdf | Burckel et al., 2016, this study | |||||||
| GS07-150-17/1GC-A | GS07-150-17/1GC-A | -4.22 | -37.08 | -1000 | X | doi.pangaea.de | GS07-150-17-1GCA_age_depth_input.txt | GS07-150-17-1GCA_admodel.pdf | Freeman et al., 2015, Voigt et al., 2017 | |||||||
| MD09-3246 | MD09-3246 | -4.23 | -37.10 | -892 | X | doi.pangaea.de | MD09-3246_age_depth_input.txt | MD09-3246_admodel.pdf | this study | |||||||
| GeoB3910-2 | GeoB3910-2 | -4.25 | -36.35 | -2362 | X | doi.pangaea.de | GeoB3910-2_age_depth_input.txt | GeoB3910-2_admodel.pdf | Arz et al., 2001, Burckel et al., 2015, Jaeschke et al., 2007 | |||||||
| 175-1078C | ODP Site 1078C | -11.92 | 13.40 | -426 | X | doi.pangaea.de | ODP1078C_age_depth_input.txt | ODP1078C_admodel.pdf | Kim et al., 2003 | |||||||
| GeoB1023-5 | GeoB1023-5 | -17.16 | 11.01 | -1978 | X | doi.pangaea.de | GeoB1023-5_age_depth_input.txt | GeoB1023-5_admodel.pdf | Kim et al., 2012 | |||||||
| GeoB3202-1 | GeoB3202-1 | -21.62 | -39.98 | -1090 | X | doi.pangaea.de | GeoB3202-1_age_depth_input.txt | GeoB3202-1_admodel.pdf | Behling et al., 2002 | |||||||
| GeoB1711-4 | GeoB1711 | -23.32 | 12.38 | -1967 | X | doi.pangaea.de | GeoB1711_age_depth_input.txt | GeoB1711_admodel.pdf | Balmer et al., 2016, Vidal et al., 1999 | |||||||
| MD08-3167 | MD08-3167 | -23.32 | 12.38 | -1948 | X | doi.pangaea.de | MD08-3167_age_depth_input.txt | MD08-3167_admodel.pdf | Collins et al., 2014, this study | |||||||
| GL1090 | GL1090 | -24.90 | -42.50 | -2225 | X | doi.pangaea.de | GL1090_age_depth_input.txt | GL1090_admodel.pdf | Santos et al., 2017 | |||||||
| 175-1084 | ODP Site 1084 | -25.51 | 13.03 | -1992 | X | doi.pangaea.de | ODP1084_age_depth_input.txt | ODP1084_admodel.pdf | Farmer et al., 2005 | |||||||
| GeoB6201-5 | GeoB6201-5 | -26.67 | -46.44 | -475 | X | doi.pangaea.de | GeoB6201-5_age_depth_input.txt | GeoB6201-5_admodel.pdf | Portilho-Ramos et al., 2018 | |||||||
| KNR159-5-36GGC | KNR159-5-36GGC | -27.50 | -46.50 | -1268 | X | doi.pangaea.de | KNR159-5-36GGC_age_depth_input.txt | KNR159-5-36GGC_admodel.pdf | Came et al., 2003 | |||||||
| KNR159-5-42JPC | KNR159-5-42JPC | -27.76 | -46.63 | -2296 | X | doi.pangaea.de | KNR159-5-42JPC_age_depth_input.txt | KNR159-5-42JPC_admodel.pdf | Hoffman and Lund, 2012 | |||||||
| GeoB1720-2 | GeoB1720-2 | -29.00 | 13.84 | -1997 | X | doi.pangaea.de | GeoB1720-2_age_depth_input.txt | GeoB1720-2_admodel.pdf | Dickson et al., 2009 | |||||||
| MD02-2592 | MD02-2592 | -32.09 | 14.47 | -2869 | X | doi.pangaea.de | MD02-2592_age_depth_input.txt | MD02-2592_admodel.pdf | this study | |||||||
| MD02-2594 | MD02-2594 | -34.71 | 17.34 | -2440 | X | doi.pangaea.de | MD02-2594_age_depth_input.txt | MD02-2594_admodel.pdf | Martínez?Méndez et al., 2010 | |||||||
| MD16-3511 | MD16-3511Q | -35.36 | 29.24 | -4435 | X | doi.pangaea.de | MD16-3511Q_age_depth_input.txt | MD16-3511Q_admodel.pdf | this study | |||||||
| TNO57-21 | TNO57-21 | -41.10 | 7.80 | -4981 | X | doi.pangaea.de | TNO57-21_age_depth_input.txt | TNO57-21_admodel.pdf | Barker and Diz, 2014 | |||||||
| MD02-2588 | MD02-2588Q | -41.33 | 25.83 | -2907 | X | doi.pangaea.de | MD02-2588Q_age_depth_input.txt | MD02-2588Q_admodel.pdf | Ziegler et al., 2013 | |||||||
| MD07-3076 | MD07-3076Q | -44.15 | -14.22 | -3770 | X | doi.pangaea.de | MD07-3076Q_age_depth_input.txt | MD07-3076Q_admodel.pdf | Gottschalk et al., 2015, Skinner et al., 2010 | |||||||
| JR244-GC528 | JR244-GC528 | -53.01 | -58.04 | -598 | 14C dates calibrated using reservoir ages at 600 m water depth | X | doi.pangaea.de | JR244-GC528_age_depth_input.txt | JR244-GC528_admodel.pdf | Roberts et al., 2016 |