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Dallmeyer, Anne; Claussen, Martin; Fischer, Nils; Haberkorn, Kerstin; Wagner, Sebastian; Pfeiffer, Madlene; Jin, Liya; Khon, Vyacheslav; Wang, Yongbo; Herzschuh, Ulrike (2014): Holocene precipitation change in different monsoon sub-regions (time-slices and transient data) simulated by different global climate models, with links to model results [dataset]. PANGAEA, https://doi.org/10.1594/PANGAEA.837442, Supplement to: Dallmeyer, Anne; Claussen, Martin; Fischer, Nils; Haberkorn, Kerstin; Wagner, Sebastian; Pfeiffer, Madlene; Jin, Liya; Khon, Vyacheslav; Wang, Yujie; Herzschuh, Ulrike (2015): The evolution of sub-monsoon systems in the Afro-Asian monsoon region during the Holocene– comparison of different transient climate model simulations. Climate of the Past, 11(2), 305-326, https://doi.org/10.5194/cp-11-305-2015

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Abstract:
The recently proposed global monsoon hypothesis interprets monsoon systems as part of one global-scale atmospheric overturning circulation, implying a connection between the regional monsoon systems and an in-phase behaviour of all northern hemispheric monsoons on annual timescales (Trenberth et al., 2000). Whether this concept can be applied to past climates and variability on longer timescales is still under debate, because the monsoon systems exhibit different regional characteristics such as different seasonality (i.e. onset, peak, and withdrawal). To investigate the interconnection of different monsoon systems during the pre-industrial Holocene, five transient global climate model simulations have been analysed with respect to the rainfall trend and variability in different sub-domains of the Afro-Asian monsoon region. Our analysis suggests that on millennial timescales with varying orbital forcing, the monsoons do not behave as a tightly connected global system. According to the models, the Indian and North African monsoons are coupled, showing similar rainfall trend and moderate correlation in rainfall variability in all models. The East Asian monsoon changes independently during the Holocene. The dissimilarities in the seasonality of the monsoon sub-systems lead to a stronger response of the North African and Indian monsoon systems to the Holocene insolation forcing than of the East Asian monsoon and affect the seasonal distribution of Holocene rainfall variations. Within the Indian and North African monsoon domain, precipitation solely changes during the summer months, showing a decreasing Holocene precipitation trend. In the East Asian monsoon region, the precipitation signal is determined by an increasing precipitation trend during spring and a decreasing precipitation change during summer, partly balancing each other. A synthesis of reconstructions and the model results do not reveal an impact of the different seasonality on the timing of the Holocene rainfall optimum in the different sub-monsoon systems. They rather indicate locally inhomogeneous rainfall changes and show, that single palaeo-records should not be used to characterise the rainfall change and monsoon evolution for entire monsoon sub-systems.
Source:
Fischer, Nils; Jungclaus, Johann H (2011): Evolution of the seasonal temperature cycle in a transient Holocene simulation: orbital forcing and sea-ice. Climate of the Past, 7, 1139-1148, https://doi.org/10.5194/cp-7-1139-2011
Haberkorn, Kerstin (2013): Reconstruction of the Holocene climate using an atmosphere–ocean-biosphere model and proxy data. PhD Thesis, University of Hamburg, urn:nbn:de:gbv:18-62566
Jin, Liya; Schneider, Birgit; Park, Wonsun; Latif, Mojib; Khon, Vyacheslav; Zhang, P X (2014): The spatial–temporal patterns of Asian summer monsoon precipitation in response to Holocene insolation change: a model-data synthesis. Quaternary Science Reviews, 85, 47-62, https://doi.org/10.1016/j.quascirev.2013.11.004
Pfeiffer, Madlene; Lohmann, Gerrit (2013): The last interglacial as simulated by an Atmosphere-Ocean General Circulation Model: Sensitivity studies on the influence of the Greenland Ice Sheet. In: Lohmann, Gerrit; Grosfeld, Klaus; Wolf-Gladrow, Dieter; Unnithan, Vikram; Notholt, Justus; Wegner, Anna (eds.), Earth System Science: Bridging the Gaps between Disciplines, SpringerBriefs in Earth System Sciences, Springer Berlin Heidelberg, Berlin, Heidelberg, 57-82, https://doi.org/10.1007/978-3-642-32235-8_3
Wagner, Sebastian; Widmann, Martin; Jones, Julie; Haberzettl, Torsten; Lücke, Andreas; Mayr, Christoph; Ohlendorf, Christian; Schäbitz, Frank; Zolitschka, Bernd (2007): Transient simulations, empirical reconstructions and forcing mechanisms for the Mid-holocene hydrological climate in southern Patagonia. Climate Dynamics, 29(4), 333-355, https://doi.org/10.1007/s00382-007-0229-x
Funding:
German Research Foundation (DFG), grant/award no. 25575884: Integrierte Analyse zwischeneiszeitlicher Klimadynamik
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#NameShort NameUnitPrincipal InvestigatorMethod/DeviceComment
Reference of dataRef dataDallmeyer, Anne
File contentContentDallmeyer, Anne
CommentCommentDallmeyer, AnneName and resolution of model
File nameFile nameDallmeyer, Anne
File formatFile formatDallmeyer, Anne
File sizeFile sizekByteDallmeyer, Anne
Uniform resource locator/link to fileURL fileDallmeyer, Anne
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76 data points

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performed by Fischer and Jungclaus (Climate of the Past, 7, 1139-1148, 2011)pre-industrial annual mean precipitation [mm/year], averaged over the last 120 model years, global fieldModel: COSMOS (ECHAM5/JSBACH-MPIOM): resolution: T31L19, forcing: yearly changing orbital configuration, including dynamic vegetationCOSMOS_precipitation_0k_amnetCDF20COSMOS_precipitation_0k_am.nc
performed by Fischer and Jungclaus (Climate of the Past, 7, 1139-1148, 2011)mid-Holocene annual mean precipitation [mm/year], averaged over the first 120 model years, i.e. 6000-5881 years before present, global fieldModel: COSMOS (ECHAM5/JSBACH-MPIOM): resolution: T31L19, forcing: yearly changing orbital configuration, including dynamic vegetationCOSMOS_precipitation_6k_amnetCDF21COSMOS_precipitation_6k_am.nc
performed by Pfeiffer and Lohmann (in: Earth System Science: Bridging the Gaps between Disciplines; 2013)pre-industrial annual mean precipitation [mm/year], averaged over the last 12 model years, corresponding to 120 real years due to accelerated orbital forcing, global fieldModel: COSMOSacc (ECHAM5/JSBACH-MPIOM): resolution: T31L19, accelerated orbital forcing by a factor of 10 (i.e. 6000 'real' years are 600 model years), including dynamic vegetationCOSMOSacc_precipitation_0k_amnetCDF20COSMOSacc_precipitation_0k_am.nc
performed by Pfeiffer and Lohmann (in: Earth System Science: Bridging the Gaps between Disciplines; 2013)mid-Holocene annual mean precipitation [mm/year], averaged over the first 12 model years, corresponding to 120 real years (6000-5881) due to accelerated orbital forcing, global fieldModel: COSMOSacc (ECHAM5/JSBACH-MPIOM): resolution: T31L19, accelerated orbital forcing by a factor of 10 (i.e. 6000 'real' years are 600 model years), including dynamic vegetationCOSMOSacc_precipitation_6k_amnetCDF21COSMOSacc_precipitation_6k_am.nc
performed by Wagner et al. (Climate Dynamics, 29(4), 333-355, 2007)pre-industrial annual mean precipitation [mm/year], averaged over the last 120 model years, global fieldModel: ECHO-G (ECHAM4-HOPE-G): resolution: T31L19, yearly changing orbital configuration, dynamic vegetation not includedECHOG_precipitation_0k_amnetCDF20ECHOG_precipitation_0k_am.nc
performed by Wagner et al. (Climate Dynamics, 29(4), 333-355, 2007)mid-Holocene annual mean precipitation [mm/year], averaged over the first 120 model years, i.e. 6000-5881 years before present, global fieldModel: ECHO-G (ECHAM4-HOPE-G): resolution: T31L19, yearly changing orbital configuration, dynamic vegetation not includedECHOG_precipitation_6k_amnetCDF20ECHOG_precipitation_6k_am.nc
performed by Jin et al. (Quaternary Science Reviews, 85, 47-62, 2014)pre-industrial annual mean precipitation [mm/year], averaged over the last 12 model years, corresponding to 120 real years due to accelerated orbital forcing, global fieldModel: KCM (ECHAM5-NEMO): resolution: T31L19, accelerated orbital forcing by a factor of 10, dynamic vegetation not includedKCM_precipitation_0k_amnetCDF20KCM_precipitation_0k_am.nc
performed by Jin et al. (Quaternary Science Reviews, 85, 47-62, 2014)mid-Holocene annual mean precipitation [mm/year], averaged over the first 12 model years, corresponding to 120 real years (6000-5881) due to accelerated orbital forcing, global fieldModel: KCM (ECHAM5-NEMO): resolution: T31L19, accelerated orbital forcing by a factor of 10, dynamic vegetation not includedKCM_precipitation_6k_amnetCDF20KCM_precipitation_6k_am.nc
performed by Haberkorn (Hamburg University, Dissertation, 2013)pre-industrial annual mean precipitation [mm/year], averaged over the last 120 model years, global fieldModel: PLASIM (PlaSim-LSGocean-Simba): resolution: T21L10, yearly changing orbital configuration and changing greenhouse gas concentration, including dynamic vegetationPLASIM_precipitation_0k_amnetCDF20PLASIM_precipitation_0k_am.nc
performed by Haberkorn (Hamburg University, Dissertation, 2013)mid-Holocene annual mean precipitation [mm/year], averaged over the first 120 model years, i.e. 6000-5881 years before present, global fieldModel: PLASIM (PlaSim-LSGocean-Simba): resolution: T21L10, yearly changing orbital configuration and changing greenhouse gas concentration, including dynamic vegetationPLASIM_precipitation_6k_amnetCDF21PLASIM_precipitation_6k_am.nc
this work100 year running mean precipitation anomaly [mm/year] to pre-industrial (0k), starting at mid-Holocene (6000 years before present = -6000), assigned to the year in the mid of the interval, averaged over five different monsoon sub-regionsdata_monsregXLSX1226data_monsreg.xlsx