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Capron, Emilie; Govin, Aline; Stone, Emma J; Masson-Delmotte, Valerie; Mulitza, Stefan; Otto-Bliesner, Bette L; Rasmussen, Tine Lander; Sime, Louise C; Waelbroeck, Claire; Wolff, Eric William (2015): Last Interglacial synthesis of high-latitude temperature: temperature anomalies and associated errors for 4 time slices [dataset]. PANGAEA, https://doi.org/10.1594/PANGAEA.841672, Supplement to: Capron, E et al. (2014): Temporal and spatial structure of multi-millennial temperature changes at high latitudes during the Last Interglacial. Quaternary Science Reviews, 103, 116-133, https://doi.org/10.1016/j.quascirev.2014.08.018

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Abstract:
The Last Interglacial (LIG, 129-116 thousand of years BP, ka) represents a test bed for climate model feedbacks in warmer-than-present high latitude regions. However, mainly because aligning different palaeoclimatic archives and from different parts of the world is not trivial, a spatio-temporal picture of LIG temperature changes is difficult to obtain. Here, we have selected 47 polar ice core and sub-polar marine sediment records and developed a strategy to align them onto the recent AICC2012 ice core chronology. We provide the first compilation of high-latitude temperature changes across the LIG associated with a coherent temporal framework built between ice core and marine sediment records. Our new data synthesis highlights non-synchronous maximum temperature changes between the two hemispheres with the Southern Ocean and Antarctica records showing an early warming compared to North Atlantic records. We also observe warmer than present-day conditions that occur for a longer time period in southern high latitudes than in northern high latitudes. Finally, the amplitude of temperature changes at high northern latitudes is larger compared to high southern latitude temperature changes recorded at the onset and the demise of the LIG. We have also compiled four data-based time slices with temperature anomalies (compared to present-day conditions) at 115 ka, 120 ka, 125 ka and 130 ka and quantitatively estimated temperature uncertainties that include relative dating errors. This provides an improved benchmark for performing more robust model-data comparison. The surface temperature simulated by two General Circulation Models (CCSM3 and HadCM3) for 130 ka and 125 ka is compared to the corresponding time slice data synthesis. This comparison shows that the models predict warmer than present conditions earlier than documented in the North Atlantic, while neither model is able to produce the reconstructed early Southern Ocean and Antarctic warming. Our results highlight the importance of producing a sequence of time slices rather than one single time slice averaging the LIG climate conditions.
Related to:
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Funding:
Seventh Framework Programme (FP7), grant/award no. 243908: Climate Change: Learning from the past climate
Coverage:
Median Latitude: 6.890174 * Median Longitude: 20.669920 * South-bound Latitude: -78.464420 * West-bound Longitude: -51.060000 * North-bound Latitude: 77.450000 * East-bound Longitude: 177.990000
Date/Time Start: 1971-01-01T00:00:00 * Date/Time End: 2009-08-20T00:00:00
Minimum Elevation: -4620.5 m * Maximum Elevation: 3810.0 m
Event(s):
90-594  * Latitude: -45.523500 * Longitude: 174.948000 * Date/Time: 1983-01-03T00:00:00 * Elevation: -1204.0 m * Penetration: 505.1 m * Recovery: 300.7 m * Location: South Pacific/CONT RISE * Campaign: Leg90 * Basis: Glomar Challenger * Method/Device: Drilling/drill rig (DRILL) * Comment: 50 cores; 475.3 m cored; 28.8 m drilled; 63.3 % recovery
104-644  * Latitude: 66.678300 * Longitude: 4.576700 * Date/Time Start: 1985-08-08T00:00:00 * Date/Time End: 1985-08-10T00:00:00 * Elevation: -1226.0 m * Penetration: 380.5 m * Recovery: 342.1 m * Location: Norwegian Sea * Campaign: Leg104 * Basis: Joides Resolution * Method/Device: Composite Core (COMPCORE) * Comment: 49 cores; 380.5 m cored; 0 m drilled; 89.9% recovery
162-980  * Latitude: 55.484933 * Longitude: -14.702267 * Date/Time Start: 1995-07-10T00:00:00 * Date/Time End: 1995-07-11T00:00:00 * Elevation: -2180.0 m * Penetration: 353.7 m * Recovery: 366.7 m * Location: South Atlantic Ocean * Campaign: Leg162 * Basis: Joides Resolution * Method/Device: Composite Core (COMPCORE) * Comment: 39 cores; 353.7 m cored; 0 m drilled; 103.7% recovery
Comment:
This dataset concerns the new synthesis of high-latitude temperature anomalies during the Last Interglacial published by Capron et al. 2014. It contains:
- the information of marine sediment and ice core sites included in the study: name, latitude, longitude, elevation, information of temperature reconstruction, modern temperature value (from WOA98 and core top, if available)
- temperature anomalies and 2 sigma errors for 4 time slices (130 ka, 125 ka, 120 ka, 115 ka) using WOA98 values as modern reference
- temperature anomalies and 2 sigma errors for 4 time slices (130 ka, 125 ka, 120 ka, 115 ka) using core top SST values as modern reference
Age pointers defined in marine sediment cores are given in Table A2 available online as a supplement of the paper.
Parameter(s):
#NameShort NameUnitPrincipal InvestigatorMethod/DeviceComment
Event labelEvent
Latitude of eventLatitude
Longitude of eventLongitude
Elevation of eventElevationm
Area/localityAreaCapron, Emilie
CommentCommentCapron, Emilieproxy for reconstructed temperature
UncertaintyUncertainty±Capron, Emilieoriginal uncertainty of reconstructed temperature (in °C)
TypeTypeCapron, Emilietype of temperature
Reference of dataRef dataCapron, Emilie
10 Temperature, airTTT°CCapron, Emiliemodern Annual surface air temperature at ice core drilling sites
11 Temperature, waterTemp°CCapron, Emiliecore top temperature
12 Age, commentCommCapron, Emilieinformation on core top age
13 Temperature, water, interpolatedTemp interp°CCapron, EmilieWOA98 temperature (°C)
14 Temperature, differencedelta T°CCapron, EmilieWOA98 - core top temperature difference (°C)
15 Temperature anomalyT anomaly°CCapron, Emilie130 ka (°C, versus WOA98)
16 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie130 ka 2sigma (°C, versus WOA98)
17 Temperature anomalyT anomaly°CCapron, Emilie125 ka (°C, versus WOA98)
18 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie125 ka 2sigma (°C, versus WOA98)
19 Temperature anomalyT anomaly°CCapron, Emilie120 ka (°C, versus WOA98)
20 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie120 ka 2sigma (°C, versus WOA98)
21 Temperature anomalyT anomaly°CCapron, Emilie115 ka (°C, versus WOA98)
22 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie115 ka 2sigma (°C, versus WOA98)
23 Temperature anomalyT anomaly°CCapron, Emilie130 ka (°C, versus core top value)
24 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie130 ka 2sigma (°C, versus core top value)
25 Temperature anomalyT anomaly°CCapron, Emilie125 ka (°C, versus core top value)
26 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie125 ka 2sigma (°C, versus core top value)
27 Temperature anomalyT anomaly°CCapron, Emilie120 ka (°C, versus core top value)
28 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie120 ka 2sigma (°C, versus core top value)
29 Temperature anomalyT anomaly°CCapron, Emilie115 ka (°C, versus core top value)
30 Temperature anomaly, standard errorT anomaly std e±Capron, Emilie115 ka 2sigma (°C, versus core top value)
Size:
974 data points

Data

Download dataset as tab-delimited text — use the following character encoding:


Event

Latitude

Longitude

Elevation [m]

Area

Comment
(proxy for reconstructed tempe...)

Uncertainty [±]
(original uncertainty of recon...)

Type
(type of temperature)

Ref data
10 
TTT [°C]
(modern Annual surface air tem...)
11 
Temp [°C]
(core top temperature)
12 
Comm
(information on core top age)
13 
Temp interp [°C]
(WOA98 temperature (°C))
14 
delta T [°C]
(WOA98 - core top temperature ...)
15 
T anomaly [°C]
(130 ka (°C, versus WOA98))
16 
T anomaly std e [±]
(130 ka 2sigma (°C, versus WOA98))
17 
T anomaly [°C]
(125 ka (°C, versus WOA98))
18 
T anomaly std e [±]
(125 ka 2sigma (°C, versus WOA98))
19 
T anomaly [°C]
(120 ka (°C, versus WOA98))
20 
T anomaly std e [±]
(120 ka 2sigma (°C, versus WOA98))
21 
T anomaly [°C]
(115 ka (°C, versus WOA98))
22 
T anomaly std e [±]
(115 ka 2sigma (°C, versus WOA98))
23 
T anomaly [°C]
(130 ka (°C, versus core top v...)
24 
T anomaly std e [±]
(130 ka 2sigma (°C, versus cor...)
25 
T anomaly [°C]
(125 ka (°C, versus core top v...)
26 
T anomaly std e [±]
(125 ka 2sigma (°C, versus cor...)
27 
T anomaly [°C]
(120 ka (°C, versus core top v...)
28 
T anomaly std e [±]
(120 ka 2sigma (°C, versus cor...)
29 
T anomaly [°C]
(115 ka (°C, versus core top v...)
30 
T anomaly std e [±]
(115 ka 2sigma (°C, versus cor...)
NEEM 77.45-51.062545GreenlandWater isotopes4.0Precipitation-weighted surface temperatureNEEM c. m., 2013-29.07.14.05.04.0
HM71-19/1 69.48-9.51-2210Norwegian SeaPercentage of N. pachyderma sinistral1.9Summer SSTFronval et al., 19986.71.0 ka (upper 6 cm)5.6-1.11.33.61.93.72.23.81.43.70.23.60.83.71.13.80.33.7
PS1243-1 69.37-6.55-2711Norwegian SeaPercentage of N. pachyderma sinistral1.9Summer SSTBauch et al., 20127.7surface sediment (no age is stated)6.8-0.91.23.81.53.71.83.70.33.80.63.70.9
HM57-07 68.42-13.87-1621Norwegian SeaPercentage of N. pachyderma sinistral1.9Summer SSTFronval et al., 19985.01.93.82.33.72.03.8
MD95-2010 66.684.57-1226Norwegian SeaPercentage of N. pachyderma sinistral1.9Summer SSTRisiebrobakken et al., 20069.5stated as Early Holocene10.81.3-1.43.8-0.13.8
104-644 66.684.58-1226Norwegian SeaPercentage of N. pachyderma sinistral1.9Summer SSTFronval et al., 199810.9-4.03.9-2.83.8
MD95-2009 62.74-4.00-1027Norwegian SeaForaminifera transfer function (MAT)2.0Summer SSTBalbon, 2000; Manthé, 199810.3-7.04.0-8.24.70.04.0-5.34.6
ENAM33 61.16-11.10-1217North AtlanticForaminifera transfer function (WAPLS)1.8Summer SSTRasmussen et al., 2003; this study11.1-3.83.9-0.43.5-0.73.6-0.33.6-4.03.9-0.63.5-0.93.6-0.53.6
EW9302-JPC8 61.00-25.00-1917North AtlanticForaminifera transfer function (MAT)1.5Summer SSTOppo et al., 199710.90.63.35.12.94.53.22.72.9
MD95-2014 60.58-22.08-2397North AtlanticForaminifera transfer function (MAT)1.5Summer SSTManthé, 199813.27.0-8.0 ka11.5-1.7-2.03.02.53.00.23.0-2.53.2-3.73.00.83.0-1.63.0-4.23.2
MD99-2227 58.21-48.37-3460Labrador SeaMg/Ca1.3Summer SSTWinsor et al., 20124.36.0-7.0 ka7.33.0-3.62.5-3.02.5-2.52.5-4.12.6-0.62.50.02.50.52.5-1.12.6
MD03-2664 57.44-48.61-3442Labrador SeaForaminifera transfer function (MAT)1.0Summer SSTIrvali et al., 20118.9surface sediment (no age is stated)7.9-1.00.12.92.32.02.81.91.54.2-0.92.91.32.01.81.90.54.2
MD03-266457.44-48.61-3442Labrador SeaMg/Ca1.7Summer SSTIrvali et al., 20115.4surface sediment (no age is stated)7.92.5-1.73.40.83.4
162-980 55.48-14.70-2180North AtlanticForaminifera transfer function (MAT)1.7Summer SSTOppo et al., 200613.5upper 1m13.70.2-7.23.81.43.40.73.4-1.33.5-7.03.81.63.40.93.4-1.13.5
NA87-25 55.57-14.75-2320North AtlanticForaminifera transfer function (MAT)1.3Summer SSTCortijo et al., 1999; Chapman & Shackleton, 199913.5surface sediment (no age is stated)13.80.3-2.42.51.92.50.22.50.02.6-2.12.52.22.50.52.50.32.6
GIK23414-9 53.54-20.29-2196North AtlanticForaminifera transfer function (MAT)1.2Summer SSTBauch et al. 2012; Uncertainty not specified in the original paper: taken from SST uncertainty given in Kandiano et al. 200314.01.0 ka14.30.3-4.72.62.02.21.32.3-1.72.2-4.42.62.32.21.62.3-1.42.2
NEAP-18K 52.77-30.34-3275North AtlanticForaminifera transfer function (MAT)1.3Summer SSTCortijo et al. 1999; Chapman & Shackleton, 1999no data12.90.82.80.32.7-1.72.9
SU90-39 52.57-21.94-3955North AtlanticForaminifera transfer function (RAM)0.9Summer SSTLSCE database (unpublished)15.70.9 ka14.5-1.2-5.53.10.81.8-0.31.9-2.02.1-4.33.12.01.80.91.9-0.82.1
SU90-44 50.10-17.91-4255North AtlanticForaminifera transfer function (RAM)0.8Summer SSTLSCE database (unpublished)16.41.9 ka16.0-0.4-5.72.22.91.51.91.5-0.81.6-6.12.22.51.51.51.5-1.21.6
K708-001 50.00-23.73-4053North AtlanticForaminifera transfer function (F13B-4CE)1.4Summer SSTRuddiman & McIntyre 198417.31.7 ka15.6-1.7-7.53.13.52.74.33.1-1.33.3-9.23.11.82.72.63.1-3.03.3
EW9302-JPC2 48.80-45.09-1251Labrador SeaPercentage of N. pachyderma sinistral1.9Summer SSTRasmussen et al., 200312.1-2.14.4-2.23.7
SU90-08 43.35-30.41-3080North AtlanticAlkenone ratio1.5Annual SSTVillanueva et al., 1998; Uncertainty not specified in the original paper: taken from calibration curve of Prahl, 198715.02.6-3.5 ka16.51.52.72.93.02.91.42.90.13.34.22.94.52.92.92.91.63.3
SU90-0843.35-30.41-3080North AtlanticForaminifera transfer function (MAT)1.8Summer SSTCortijo, 199521.52.6-3.5 ka19.9-1.6-0.73.32.63.31.73.4-1.23.5-2.33.31.03.30.13.4-2.83.5
CH69-K09 41.76-47.35-4100North AtlanticForaminifera transfer function (MAT)2.1Summer SSTLabeyrie et al., 1999; Cortijo et al., 199917.20.9 ka19.82.6-5.65.0-2.74.3-0.64.5-0.24.2-3.25.0-0.34.31.84.52.24.2
V30-97 41.00-32.93-3371North AtlanticForaminifera transfer function (F13B-4CE)1.4Summer SSTRuddiman & McIntyre, 198121.68 ka21.70.1-5.03.6-0.52.7-1.52.9-4.63.1-4.93.6-0.42.7-1.42.9-4.53.1
SU90-03 40.51-32.05-2475North AtlanticForaminifera transfer function (MAT)1.0Summer SSTChapman & Shackleton, 1998; Cortijo et al., 199923.05 ka21.8-1.2-5.53.21.12.00.32.0-0.82.1-6.73.2-0.12.0-0.92.0-2.02.1
MD97-2121 -40.38177.99-3014Southern OceanAlkenone ratio0.6Summer SSTPahnke et al., 2006; Uncertainty not specified in the original paper: taken from calibration curve of Sikes, 199318.2upper 30 cm (no age is stated)19.21.02.82.03.32.03.12.00.92.22.62.03.12.02.92.00.72.2
MD97-2121-40.38177.99-3014Southern OceanAlkenone ratio1.0Annual SSTPahnke et al., 200616.83 ka16.6-0.21.41.31.81.21.61.3-0.41.52.41.32.81.22.61.30.71.5
177-1089 -40.949.89-4620Southern OceanRadiolarian transfer function1.2Summer SSTCortese et al., 200715.13.5 ka13.2-1.93.92.83.72.53.02.43.32.92.02.81.82.51.12.41.42.9
MD94-101 -42.5079.42-2920Southern OceanForaminifera transfer function (MAT)2.1Summer SSTLemoine, 1998; Salvignac, 199811.96-7.4 ka13.01.1-0.84.30.14.3-1.24.3-2.54.30.34.31.24.3-0.14.3-1.44.3
PS2489-2 -42.878.97-3794Southern OceanForaminifera transfer function (MAT)1.5Summer SSTBecquey and Gersonde, 200210.12 ka10.70.6-0.73.20.02.9-0.13.1-2.53.0-0.13.20.62.90.53.1-1.93.0
PS2082-3 -43.2211.76-4611Southern OceanRadiolarian transfer function1.6Summer SSTBrathauer et al., 199610.720 cm11.10.42.03.5-1.23.1-1.93.1-3.53.52.43.5-0.83.1-1.53.1-3.13.5
MD94-102 -43.5079.83-3205Southern OceanForaminifera transfer function (MAT)2.1Summer SSTLemoine, 1998; Salvignac, 199812.15.8-6.8 ka11.5-0.61.14.30.74.01.24.0-2.34.40.54.30.14.00.64.0-2.94.4
90-594 -45.52174.95-1204Southern OceanForaminifera transfer function (MAT)0.9Annual SSTWells and Okada, 19979.9upper 6 cm (no age is stated)11.01.12.42.91.71.9-0.11.8-1.81.83.52.92.81.91.01.8-0.71.8
MD97-2120 -45.53174.93-1210Southern OceanForaminiferal Mg/Ca ratio0.8Summer SSTPahnke et al., 200313.1Stated as modern13.50.4-0.11.80.21.70.11.6-1.31.70.31.80.61.70.51.6-0.91.7
MD88-770 -46.0296.46-3290Southern OceanForaminifera transfer function (MAT)1.4Summer SSTLabeyrie et al., 1999; Govin et al., 200910.28.5-9.5 ka8.6-1.61.52.81.52.81.52.8-0.42.8-0.12.8-0.12.8-0.12.8-2.02.8
MD88-769 -46.0790.11-3420Southern OceanForaminifera transfer function (MAT)1.9Summer SSTLemoine, 1998; Salvignac, 199810.36.1-7.0 ka9.1-1.23.14.14.03.82.74.00.04.01.94.12.83.81.54.0-1.24.0
MD02-2488 -46.4888.02-3420Southern OceanForaminifera transfer function (MAT)1.9Summer SSTGovin et al., 2009; Govin et al., 20129.92.8-3.2 ka8.9-1.03.83.83.63.62.83.90.33.62.83.82.63.61.83.9-0.73.6
PS2102-2 -53.07-4.99-2390Southern OceanDiatom transfer function0.7Summer SSTBianchi and Gersonde, 20021.80.91.70.81.50.81.60.01.5
177-1094 -53.185.13-2807Southern OceanDiatom transfer function0.7Summer SSTBianchi and Gersonde, 20022.21.41.50.91.40.11.4-0.41.6
PS2276-4 -54.64-23.95-4383Southern OceanDiatom transfer function0.7Summer SSTBianchi and Gersonde, 20021.71.01.50.51.40.61.40.01.4
MD84-551 -55.0173.28-2230Southern OceanForaminifera transfer function (MAT)1.0Summer SSTPichon et al., 19924.4surface sediment (no age is stated)2.5-1.92.92.32.92.02.62.00.92.01.02.31.02.00.72.0-1.02.0
SO136_111GC-12 -56.68160.24-3914Southern OceanDiatom transfer function1.8Summer SSTCrosta et al., 20044.83.2-4.2 ka5.50.70.13.5-0.93.5-0.33.4-0.53.50.83.5-0.23.50.43.40.23.5
EDML -75.000.072892AntarcticaWater isotopes1.5Annual air temperatureMasson-Delmotte et al., 2011-44.61.51.50.81.5-0.11.5-1.51.5
EDC -75.10123.353233AntarcticaWater isotopes1.5Annual air temperatureMasson-Delmotte et al., 2011-54.52.61.51.61.51.31.5-1.51.5
Dome_Fuji -77.3239.673810AntarcticaWater isotopes1.5Annual air temperatureMasson-Delmotte et al., 2011-57.02.31.51.71.51.41.5-1.11.5
Vostok -78.46106.843488AntarcticaWater isotopes1.5Annual air temperatureMasson-Delmotte et al., 2011-55.31.51.51.51.50.81.5-2.11.5