TY - JOUR
T1 - Networking the forest infrastructure towards near real-time monitoring – A white paper
AU - Zweifel, Roman
AU - Pappas, Christoforos
AU - Peters, Richard L.
AU - Babst, Flurin
AU - Balanzategui, Daniel
AU - Basler, David
AU - Bastos, Ana
AU - Beloiu, Mirela
AU - Buchmann, Nina
AU - Bose, Arun K.
AU - Braun, Sabine
AU - Damm, Alexander
AU - D'Odorico, Petra
AU - Eitel, Jan U.H.
AU - Etzold, Sophia
AU - Fonti, Patrick
AU - Rouholahnejad Freund, Elham
AU - Gessler, Arthur
AU - Haeni, Matthias
AU - Hoch, Günter
AU - Kahmen, Ansgar
AU - Körner, Christian
AU - Krejza, Jan
AU - Krumm, Frank
AU - Leuchner, Michael
AU - Leuschner, Christoph
AU - Lukovic, Mirko
AU - Martínez-Vilalta, Jordi
AU - Matula, Radim
AU - Meesenburg, Henning
AU - Meir, Patrick
AU - Plichta, Roman
AU - Poyatos, Rafael
AU - Rohner, Brigitte
AU - Ruehr, Nadine
AU - Salomón, Roberto L.
AU - Scharnweber, Tobias
AU - Schaub, Marcus
AU - Steger, David N.
AU - Steppe, Kathy
AU - Still, Christopher
AU - Stojanović, Marko
AU - Trotsiuk, Volodymyr
AU - Vitasse, Yann
AU - von Arx, Georg
AU - Wilmking, Martin
AU - Zahnd, Cedric
AU - Sterck, Frank
PY - 2023/5/10
Y1 - 2023/5/10
N2 - Forests account for nearly 90 % of the world's terrestrial biomass in the form of carbon and they support 80 % of the global biodiversity. To understand the underlying forest dynamics, we need a long-term but also relatively high-frequency, networked monitoring system, as traditionally used in meteorology or hydrology. While there are numerous existing forest monitoring sites, particularly in temperate regions, the resulting data streams are rarely connected and do not provide information promptly, which hampers real-time assessments of forest responses to extreme climate events. The technology to build a better global forest monitoring network now exists. This white paper addresses the key structural components needed to achieve a novel meta-network. We propose to complement - rather than replace or unify - the existing heterogeneous infrastructure with standardized, quality-assured linking methods and interacting data processing centers to create an integrated forest monitoring network. These automated (research topic-dependent) linking methods in atmosphere, biosphere, and pedosphere play a key role in scaling site-specific results and processing them in a timely manner. To ensure broad participation from existing monitoring sites and to establish new sites, these linking methods must be as informative, reliable, affordable, and maintainable as possible, and should be supplemented by near real-time remote sensing data. The proposed novel meta-network will enable the detection of emergent patterns that would not be visible from isolated analyses of individual sites. In addition, the near real-time availability of data will facilitate predictions of current forest conditions (nowcasts), which are urgently needed for research and decision making in the face of rapid climate change. We call for international and interdisciplinary efforts in this direction.
AB - Forests account for nearly 90 % of the world's terrestrial biomass in the form of carbon and they support 80 % of the global biodiversity. To understand the underlying forest dynamics, we need a long-term but also relatively high-frequency, networked monitoring system, as traditionally used in meteorology or hydrology. While there are numerous existing forest monitoring sites, particularly in temperate regions, the resulting data streams are rarely connected and do not provide information promptly, which hampers real-time assessments of forest responses to extreme climate events. The technology to build a better global forest monitoring network now exists. This white paper addresses the key structural components needed to achieve a novel meta-network. We propose to complement - rather than replace or unify - the existing heterogeneous infrastructure with standardized, quality-assured linking methods and interacting data processing centers to create an integrated forest monitoring network. These automated (research topic-dependent) linking methods in atmosphere, biosphere, and pedosphere play a key role in scaling site-specific results and processing them in a timely manner. To ensure broad participation from existing monitoring sites and to establish new sites, these linking methods must be as informative, reliable, affordable, and maintainable as possible, and should be supplemented by near real-time remote sensing data. The proposed novel meta-network will enable the detection of emergent patterns that would not be visible from isolated analyses of individual sites. In addition, the near real-time availability of data will facilitate predictions of current forest conditions (nowcasts), which are urgently needed for research and decision making in the face of rapid climate change. We call for international and interdisciplinary efforts in this direction.
KW - Automated, standardized linking methods
KW - Ecophysiology
KW - Forest monitoring and observation infrastructure
KW - Meta-network
KW - Nowcasting and predictions in near real-time
KW - Remote sensing
U2 - 10.1016/j.scitotenv.2023.162167
DO - 10.1016/j.scitotenv.2023.162167
M3 - Article
C2 - 36775147
AN - SCOPUS:85150311362
SN - 0048-9697
VL - 872
JO - Science of the Total Environment
JF - Science of the Total Environment
M1 - 162167
ER -