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Details of Award

NERC Reference : NE/D005833/1

Arctic Biosphere-Atmosphere Coupling across multiple Scales (ABACUS).

Grant Award

Principal Investigator:
Professor M Williams, University of Stirling, Biological and Environmental Sciences
Co-Investigator:
Dr P Gates, Durham University, Biosciences
Co-Investigator:
Dr E Blyth, UK Centre for Ecology & Hydrology, Hydro-climate Risks
Co-Investigator:
Professor D Hopkins, SRUC, Unlisted - Edinburgh Campus
Co-Investigator:
Professor G Phoenix, University of Sheffield, School of Biosciences
Co-Investigator:
Dr R Harding, NERC CEH (Up to 30.11.2019), Reynard
Co-Investigator:
Professor P Ineson, University of York, Biology
Co-Investigator:
Dr M Garnett, Scottish Universities Env Research Cen, SUERC
Co-Investigator:
Professor MC Press, University of Birmingham, Sch of Biosciences
Co-Investigator:
Professor PE Lewis, University College London, Geography
Co-Investigator:
Professor MI Disney, University College London, Geography
Co-Investigator:
Professor B Huntley, Durham University, Biosciences
Co-Investigator:
Dr M Mencuccini, University of Edinburgh, Sch of Geosciences
Co-Investigator:
Professor R Baxter, Durham University, Biosciences
Co-Investigator:
Professor PA Wookey, University of Stirling, Biological and Environmental Sciences
Co-Investigator:
Professor J Moncrieff, University of Edinburgh, Sch of Geosciences
Co-Investigator:
Dr M Sommerkorn, Macaulay Land Use Research Institute, Environmental Sciences
Science Area:
Terrestrial
Freshwater
Earth
Atmospheric
Overall Classification:
Terrestrial
ENRIs:
Natural Resource Management
Global Change
Science Topics:
Land - Atmosphere Interactions
Ecosystem Scale Processes
Soil science
Climate & Climate Change
Abstract:
Climate warming is resulting from disruption of the global carbon cycle. The Arctic is already warming significantly, and warming is expected to be fastest and greatest at high latitudes, 4-7 degrees C over the next century. However, there are complex links among climate, the carbon cycle and the global energy balance which mean that the details of such global changes remain poorly understood. We propose a major, linked programme of plant and soil studies, atmospheric measurements, aircraft and satellite observations, and modelling, to improve our understanding of the response of the arctic terrestrial biosphere to climate change. Our overall aim is to determine what controls the temporal and spatial variability of carbon, water and energy exchange between arctic ecosystems and the atmosphere. Our field sites are based at Abisko, Sweden (with one focus area in dry tundra, the other in birch forest), and Kevo, Finland (with one focus on wet tundra, the other on dry tundra). At Kevo and Abisko both satellite imagery and aircraft flights will encompass an area of 10 km x 10 km, including both focus areas. The project has eight work-packages: WP1 Studies on plant allocation and phenology, and respiration-production ratios for major community types (via harvests, root measurement and isotope tracer experiments). WP2 Turnover of litter, soil organic matter (SOM), landscape distribution of soils (via soil surveys, isotope labelled litter, bomb C dating to determine SOM age), CH4 emissions. WP3 Chamber measurements of C and water exchanges from soils and vegetation at fine scales (a resolution of ~1m). WP4 Continuous tower measurements of CO2 and water exchange between the soils/vegetation and the atmosphere at scales of ~100 m, and records of snow depth, soil moisture and climate. WP5 Aircraft measurements over the two study regions, recording CO2 and water exchanges and images of the land surface and profiles of CH4. These measurements will extend over areas of many km squared. WP6 Earth Observation via satellites. We will link observations from several satellite instruments to measurements of plant cover recorded in field campaigns. WP7 We use models to connect the information connected at different time and space scales. The models represent our best understanding of the system, and we check and improve our understanding against independent observations, whether from chambers, towers, aircraft or satellites. We test whether we can understand the data from satellites and aircraft in terms of the detail recorded at the chambers and towers and with the WP1 and WP2 experiments. WP8 We will run an international workshop to share our ideas with colleagues from around the world. We will train post-graduates with a summer-school based around field measurement, and provide undergraduates with summer field experience.
Period of Award:
1 Jun 2006 - 31 Jul 2009
Value:
£211,251 Split Award
Authorised funds only
NERC Reference:
NE/D005833/1
Grant Stage:
Completed
Scheme:
Directed Pre FEC
Grant Status:
Closed
Programme:
Arctic IPY

This grant award has a total value of £211,251  

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FDAB - Financial Details (Award breakdown by headings)

Total - StaffTotal - T&STotal - Other CostsTotal - Indirect Costs
£89,385£36,718£44,031£41,117

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