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Involved Personnel
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1
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Anders Omstedt
University of Gothenburg
Earth Science Centre
Ocean Climate Group
www.oceanclimate.se
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WP1: Programme management, synthesis and assessment, dissemination
Task 1.1: Programme management
Task 1.2: Workshop and estimated environmental economics aspects
Task 1.3: Synthesis and assessment of Baltic Sea CO2 system.
Task 1.4: Dissemination
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David Rayner |
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2
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Bernd Schneider
Baltic Sea Research Institute Warnemünde, Germany
www.io-warnemuende.de/meereschemie.html
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WP2: Measurements of the Baltic Sea CO2 system and carbon inventories
Task 2.1: Recording surface water pCO2 and O2 using a fully automated measurement system deployed on VOS “FINNMAID”
Task 2.2: Determining the organic/inorganic carbon and oxygen pools in different Baltic Sea sub-regions
Task 2.3: Compiling and evaluating CO2 /carbon data collected by previous research and monitoring programmes
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Anne Löffler
Bernd Sadkowiak |
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3
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Matti Pertillä
Finnish Meteorological Institute, Helsinki, Finland
www.fmi.fi
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WP3: Inventory of river runoff data
Task 3.1: Evaluating the river input concentrations from existing monitoring and research data
Task 3.2: Evaluating river concentrations from marine data
Task 3.3: Measuring input concentrations
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4
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Janusz Pempkowiak
Institute of
Oceanology
,
Polish
Academy
of Sciences
Sopot, Poland
iopan.gda.pl
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WP4: Mineralization of organic material, deepwater–sediment interaction
Task 4.1: Establishing remineralization rate constants for organic matter based on existing data
Task 4.2: Collecting new experimental data to improve and extend the rates provided in task 4.1
Task 4.3: Establishing loads of carbon species passing across the sediment–water interface over the entire Baltic
Task 4.4: Determining remineralization rate constants at the sediment surface and in the water column, based on CO2 concentrations in Gotland Sea deep water
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Anna Maciejewska
Aleksandra Szczepańska |
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5
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Anna Rutgersson
Department of Earth Sciences, Uppsala University, Sweden
www.geo.uu.se/luva
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WP5: Atmospheric forcing (air–sea interaction, scenarios)
Task 5.1: Air–sea interaction
Task 5.2: Acid deposition
Task 5.3: Climate scenarios and land-use data
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Björn Carlsson
Maria Norman |
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6
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Benjamin Smith
Lund University, Sweden
www.nateko.lu.se
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WP6: Modelling the organic matter input from terrestrial vegetation and soils
Task 6.1: Terrestrial carbon model setup, validation, and coupling to the river runoff carbon model (WP7)
Task 6.2: Modelling present and past changes in vegetation structure and functioning and in dissolved organic carbon export
Task 6.3: Modelling possible future changes in vegetation structure and functioning and in dissolved organic carbon export.
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7
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Christoph Humborg
Baltic Nest Institute, Resilience Centre,
Stockholm
University, Sweden
www.balticnest.org
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WP7: Modelling the input AT, CT, Ca, and Corg from all rivers to the Baltic Sea
Task 7.1: Compilation of river chemistry and hydro-meteorological forcing data
Task 7.2: Model calibration and validation of AT, CT, Ca and Corg inputs
Task 7.3: Scenario analyses of AT, CT, Ca and Corg inputs as a function of land cover change and changes in river discharge as an effect of regional climate change
Task 7.4: Scenario analyses on effects of regional climate change on N and P fluxes from 83 major watersheds forming the Baltic Sea catchment
Task 7.5: Scenario analyses on changes in land cover types (agricultural vs. forest vs. wetlands) and land use patterns (changes in fertilizer use and livestock density) on N and P fluxes from 83 major watersheds forming the Baltic Sea catchments
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Magnus Mörth |
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Anders Omstedt
University of Gothenburg
Earth Science Centre
Ocean Climate Group
www.oceanclimate.se
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WP8: Modelling the Baltic Sea physical–biogeochemical system based on the CO2/O2 dynamics and climate change
Task 8.1: Modelling present and past changes of the Baltic Sea CO2 system
Task 8.2: Modelling possible future changes in the Baltic Sea CO2 system.
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Moa Edman
Erik Gustafsson
Karin Wesslander |
