Climate–ecosystem modelling made easy : The Land Sites Platform

Summary, in English

Dynamic Global Vegetation Models (DGVMs) provide a state-of-the-art process-based approach to study the complex interplay between vegetation and its physical environment. For example, they help to predict how terrestrial plants interact with climate, soils, disturbance and competition for resources. We argue that there is untapped potential for the use of DGVMs in ecological and ecophysiological research. One fundamental barrier to realize this potential is that many researchers with relevant expertize (ecology, plant physiology, soil science, etc.) lack access to the technical resources or awareness of the research potential of DGVMs. Here we present the Land Sites Platform (LSP): new software that facilitates single-site simulations with the Functionally Assembled Terrestrial Ecosystem Simulator, an advanced DGVM coupled with the Community Land Model. The LSP includes a Graphical User Interface and an Application Programming Interface, which improve the user experience and lower the technical thresholds for installing these model architectures and setting up model experiments. The software is distributed via version-controlled containers; researchers and students can run simulations directly on their personal computers or servers, with relatively low hardware requirements, and on different operating systems. Version 1.0 of the LSP supports site-level simulations. We provide input data for 20 established geo-ecological observation sites in Norway and workflows to add generic sites from public global datasets. The LSP makes standard model experiments with default data easily achievable (e.g., for educational or introductory purposes) while retaining flexibility for more advanced scientific uses. We further provide tools to visualize the model input and output, including simple examples to relate predictions to local observations. The LSP improves access to land surface and DGVM modelling as a building block of community cyberinfrastructure that may inspire new avenues for mechanistic ecosystem research across disciplines.

• Författare: Lasse T. Keetz; Eva Lieungh; Kaveh Karimi-Asli; Sonya R. Geange; Emiliano Gelati; Hui Tang; Yeliz A. Yilmaz; Kjetil S. Aas; Inge H.J. Althuizen; Anders Bryn; Stefanie Falk; Rosie Fisher; Anne Fouilloux; Peter Horvath; Sunniva Indrehus; Hanna Lee; Danica Lombardozzi; Frans Jan W. Parmentier; Norbert Pirk; Vigdis Vandvik; Ane V. Vollsnes; Olav Skarpaas; Frode Stordal; Lena M. Tallaksen
• Avdelning/ar: MERGE: ModElling the Regional and Global Earth system; Institutionen för naturgeografi och ekosystemvetenskap
• Publiceringsår: 2023
• Språk: Engelska
• Sidor: 4440-4452
• Publikation/Tidskrift/Serie: Global Change Biology
• Volym: 29
• Issue: 15
• Länkar: http://dx.doi.org/10.1111/gcb.16808
• Dokumenttyp: Artikel i tidskrift
• Förlag: Wiley-Blackwell
• Ämne: Physical Geography; Other Computer and Information Science
• Nyckelord: Application Programming Interface (API); Community Land Model (CLM); Docker container; Dynamic Global Vegetation Model (DGVM); ecological modelling; Functionally Assembled Terrestrial Ecosystem Simulator (FATES); Graphical User Interface (GUI); Land Surface Model (LSM)
• Status: Published
• ISBN/ISSN/Övrigt: ISSN: 1354-1013