Leveraging research infrastructure co-location to evaluate constraints on terrestrial carbon cycling in northern European forests
Author:
Futter Martyn N.ORCID, Dirnböck Thomas, Forsius Martin, Bäck Jaana K., Cools Nathalie, Diaz-Pines Eugenio, Dick Jan, Gaube Veronika, Gillespie Lauren M., Högbom Lars, Laudon Hjalmar, Mirtl Michael, Nikolaidis Nikolaos, Poppe Terán Christian, Skiba Ute, Vereecken Harry, Villwock Holger, Weldon James, Wohner Christoph, Alam Syed Ashraful
Abstract
AbstractIntegrated long-term, in-situ observations are needed to document ongoing environmental change, to “ground-truth” remote sensing and model outputs and to predict future Earth system behaviour. The scientific and societal value of in-situ observations increases with site representativeness, temporal duration, number of parameters measured and comparability within and across sites. Research Infrastructures (RIs) can support harmonised, cross-site data collection, curation and publication. Integrating RI networks through site co-location and standardised observation methods can help answers three questions about the terrestrial carbon sink: (i) What are present and future carbon sequestration rates in northern European forests? (ii) How are these rates controlled? (iii) Why do the observed patterns exist? Here, we present a conceptual model for RI co-location and highlight potential insights into the terrestrial carbon sink achievable when long-term in-situ Earth observation sites participate in multiple RI networks (e.g., ICOS and eLTER). Finally, we offer recommendations to promote RI co-location.
Funder
horizon europe Swedish University of Agricultural Sciences
Publisher
Springer Science and Business Media LLC
Subject
Ecology,Environmental Chemistry,Geography, Planning and Development,General Medicine
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